Spinal stenosis occurs when the spaces within the spine narrow, resulting in pressure on the nerves running through the spinal column. The condition often develops in the lower back (lumbar stenosis) or neck (cervical stenosis).
People with spinal stenosis may not experience any symptoms, while others have pain, muscle weakness, numbness, and tingling. The condition is typically a result of osteoarthritis, the wear-and-tear deterioration of joints that occurs over time. Some doctors may recommend surgery to create additional space for the nerves.
Spinal Stenosis Symptoms
The symptoms of spinal stenosis may vary based on where the issue is located.
Symptoms of Cervical Stenosis
With stenosis of the upper spine or neck region, patients often experience:
Weakness in the extremities, such as a hand, foot, arm, or leg
Balance issues
Numbness or tingling in the extremities
Neck pain
Bowel or bladder issues in extreme cases
Symptoms of Lumbar Stenosis
When stenosis occurs in the lower back, patients may have:
Weakness or numbness in the foot or leg
Pain or cramping in one or both legs while walking or after long periods of standing
Back pain
Causes of Spinal Stenosis
Some people are naturally born with a narrow spinal canal, but in many cases, spinal stenosis is a result of outside factors that have caused the narrowing. Possible reasons for stenosis may include:
A herniated disk: The soft cushions between vertebrae often dry out and are less able to absorb shock over time. If a disk’s exterior cracks, the material may escape and put pressure on the nerves or spinal cord.
Bone overgrowth: Osteoarthritis is commonly associated with bone spurs, which can make their way into the spinal canal. Paget’s disease, a bone disorder, can also result in bone overgrowth.
Ligament thickening: The cords that hold the spine together may thicken over time, bulging into the spinal column and creating pressure on nerves.
Spinal injuries: Trauma caused by car accidents and other injuries can damage the vertebrae, leading to issues such as displaced bone or fractures that can impact the spinal canal. Also, the swelling of tissue following back surgery can put pressure on the nerves in the spine.
Tumors: Development of tumors in the spinal cord’s membranes can also occur, though they are uncommon.
In addition to these causes, certain factors also increase a person’s risk for spinal stenosis. Being over the age of 50, experiencing a back injury, and having a congenital spinal deformity such as scoliosis are all considered risk factors. Genetic diseases that impact bone or muscle development can also lead to spinal stenosis. If you want to learn more then contact a care coordinator today!
Recent breakthroughs in the field of regenerative medicine continue to support the tremendous healing potential of stem cell therapy. Until a few years ago, stem cell research was limited to only what could be gathered from the research gathered from embryonic stem cells; this research was limited by the well-documented ethical concerns surrounding the practice of harvesting stem cells from embryonic sources.
Fortunately, alternative – and less controversial – sources of stem cells, harvested primarily from autologous bone marrow and adipose tissue have demonstrated promise in treating many diseases ranging from autoimmune conditions to myocardial infarctions.
Considering this, the ability of adult stem cells to undergo division and multipotent differentiation has garnered the attention of spinal surgeons and specialists around the world, specifically for the potential benefits of these stem cells in the treatment of a variety of spine issues related to neural damage, muscle trauma, disk degeneration as well as it potential in supporting bone and spine fusion.
Stem Cells in Spine Surgery
Although the rate of spinal surgery, and specifically lumbar, cervical and thoracolumbar fusions, has continued to rapidly increase over the last 20 year, there has not yet been a breakthrough in surgical technology that has consistently demonstrated the ability to reduce reoperation rates associated with these procedures; additionally, these procedures have demonstrated little success in reducing the issue of pseudoarthrosis in patients.
As a result, spinal surgeons have begun experimenting with using stem cells to support the process of bone growth and fusion. As stem cell research continued to evolve, the discoveries of the ability of mesenchymal stem cells (MSCs) harvested from bone marrow, adipose tissue, and skeletal muscle differentiate when cultivated in the correct microenvironment has led to the realization that these stem cells demonstrated a significant effect of the process of spinal fusion.
Adding to the potential benefits of these stem cells are several animal model studies confirming the benefits of the much more available, and much easier harvested adipose-derived stem cell (ADSC). In fact, several of these animal studies have confirmed similar fusion results observed when comparing MSCs and ADSCs.
Stem Cells in Disc Regeneration
Changes occurring in the discs of the spine and specifically starting in the second decade of life, contribute to decreased disc height that contributes to the impingement of nerves and the development of lower back pain consistent with Degenerative Disc Disease.
Until recently, treatment of Degenerative Disc Disease was limited to conservative management techniques, including work and lifestyle modifications, physical therapy, medication, and epidural injections, or surgery in the form of disc replacement or spinal fusion.
Although realizing the actual effects of stem cells therapy for treating this condition has been limited in humans (primarily due to concerns associated with the potential for an immune reaction to allogeneic stem cells in humans), several animal studies have demonstrated decreased disc degeneration as well as significant improvement in height and hydration of previously damaged discs. In addition, small-scale studies in humans have demonstrated improvements in pain and disability within three months of stem cell treatment.
Considering this, Schroeder J et al. call for larger clinical trials designed to further explore the benefits associated with using stem cell therapy to treat Degenerative Disc Disease.
Stem Cells in Treatment of Spinal Cord Injury (SCI)
Spinal Cord Injury (SCI) resulting from damage to the spinal cord most often is the result of motor vehicle accidents, falls, or injuries occurring during sports, work, or in the home; currently, the World Health Organization (WHO) estimates that worldwide between 250,000 and 500,000 people suffer an SCI each year[1].
SCIs range in severity, but most often are accompanied by some degree of tissue damage and/or cell death. As a result, spine surgeons have been exploring the potential of stem cell transplantation with the hope of supporting functional recovery after an SCI is sustained.
There are several phases associated with SCI. Regardless of the specific phase associated with an SCI, scientists have realized that creating a microenvironment that enhances neuron and axon regeneration appears to be the most desirable outcome of stem cell therapy. It is hypothesized that this is best achieved by suppression of the inflammation that typically accompanies cell apoptosis and necrosis.
Although embryonic stem cells appear to provide greater differentiation than adult stem cells, the ethical concerns surrounding their use have limited further exploration of these potential benefits. However, to date, adult mesenchymal stem cells (MSCs) used in the treatment of SCI have not demonstrated immunologic reactions and have demonstrated the potential to promote axonal regeneration, suppress demyelination, induce nerve regeneration, and induce nerve regeneration.
Unfortunately, the in vivo differentiation of MSCs into neuron-like cells has been documented to be inefficient, meaning that MSCS is currently not capable of directly repopulating or physically restoring the tissue damaged in SCI.
While there have since been studies exploring the transplantation of neural stem cells (NSC) that have demonstrated sensory and motor improvements after stem cell transplantation and when combined with other cell and growth factors, these improvements were not statistically significant. Considering this, the authors of this study indicate that it’s difficult to provide a definitive statement on the clinical potential of stem cell therapy for the treatment of SCI.
In conclusion, the authors point out that there are additional areas, including iatrogenic nerve and muscle injury resulting from spinal surgery, that have not yet been clinically addressed. The authors also point out that greater standardization of in vitro experimentation and animal models may aid in the speed of translation of stem cell therapy in spinal surgery.
Though spinal cord injury is relatively common, with the incidence continuing to grow, there is only one medication used to treat this injury, and it is limited in its effectiveness. Methylprednisolone also comes with serious health risks and must be employed in a short 8-hour therapeutic window.
Given the successes observed with stem cell treatments for other nervous system injuries and diseases, scientists have posited that stem cell therapy could offer new opportunities to help those with spinal cord injury. As such, researchers recently conducted a study to determine whether a certain type of stem cell has the potential to treat spinal cord injury and whether that treatment would be safe to use in patients. The results of the study were published in The Journal of Spinal Cord Medicine.
In their study, the scientists used what is referred to as intrathecal transplantation of autologous adipose-derived mesenchymal stem cells, which are stem cells that come from fat tissue. They used these stem cells in 14 patients with spinal cord injury and evaluated the impact of these stem cells on the nervous system and on motor performance, and also monitored patients for any unwanted side effects.
Researchers did not see significant changes in magnetic resonance imaging (MRI) results over the 8 months following stem cell transplantation, but they did observe improvements in motor scores, suggesting that the stem cells were therapeutically effective against spinal cord injury. Importantly, the intrathecal transplantation of stem cells in these patients was not associated with any serious adverse events. Based on these results, scientists recommend that stem cell protocols are further investigated for their potential to treat patients with spinal cord injury.
Reference
Hur, JW et al. (2016). Intrathecal transplantation of autologous adipose-derived mesenchymal stem cells for treating spinal cord injury: A human trial. The Journal of Spinal Cord Medicine, 39(6), 655-663.
Traumatic spinal cord injury is a potentially devastating event in which the nerves and nerves cells in the spinal cord are damaged. In the United States, more than a quarter of a million people struggle with the lifelong consequences of traumatic spinal cord injury. The consequences of spinal cord injury vary from person to person, but each person usually must deal with several complications. Many people with spinal cord injury are paralyzed. They are at risk for pressure ulcers, blood clots in the legs, urine and bowel problems, and sexual dysfunction. Despite being paralyzed, as many as two-thirds of patients with spinal cord injury experience chronic pain, which is difficult to treat. Spinal cord injury can also affect how the heart and lungs function.
There are no specific treatments for spinal cord injury. If the injury is treated early, steroids and spine surgery/neurosurgery can help reduce long-term complications. In some cases of incomplete spinal cord injury, physical therapy can help people regain some degree of function. For the most part, treatment is aimed at reducing symptoms rather than curing the injury. Treating the symptoms helps make the disease less of a burden, but is by no means the same as a cure.
Because spinal cord injury has such long-lasting and devastating effects, researchers are actively pursuing ways to heal injured spinal cord nerve cells. One possible way to do this is through the use of stem cells.
Liu and coauthors conducted a clinical trial on 22 patients with spinal cord injury. The doctors collected mesenchymal stem cells from umbilical cord tissue that would normally be discarded as medical waste after delivery. They purified the stem cells and then used them to treat the injured patients. Astoundingly, stem cell treatment was effective in 13 of 22 patients. Patients who achieved benefit from stem cells enjoyed the return of motor function, sensory function, or both. All patients who were treated with stem cells reported less pain, improved sensation, better movement, and a greater ability to provide self-care. Importantly, the treatment did not cause any notable side effects for up to three years after treatment.
These clinical trial results are truly remarkable, but it is important to note that the number of patients treated was small and further testing is needed. Nevertheless, the researchers concluded that treatment with mesenchymal stem cells derived from umbilical cells is safe, and can improve function and quality of life in most patients with spinal cord injury.
Reference: Liu et al. (2013). Clinical analysis of the treatment of spinal cord injury with umbilical cord mesenchymal stem cells. Cytotherapy. 2013 Feb;15(2):185-91.
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