Home | Apply Online |  Terms of Use |  About Us |  Policy and Ethics |  Contact
Emerging Spinecare Trends

Spine Informatics
Integrated Spinecare
Role of the Internet
Evidence-Based Care
Spinecare Facilites (Centers of Excellence)
The Future of Diagnostic Imaging of the Spine
Future Imaging of the Spinal Cord
Future Role of Traditional and Virtual Organizations
Redefining and Restaging Disease
Future Role of Physicians and Spine Specialists (Spinecare Team)
Future Non-Operative Treatment Emphasis
Future Invasive Care (Spine Surgery)
Biological Solutions
Future Imaging of the Spinal Cord

Chronic spinal cord compression represents one of the most common causes of muscle weakness and paralysis in the elderly. People are living longer; therefore, there is a rising incidence of degenerative narrowing of the spinal canal (spinal stenosis) which can lead to slow and clinical silent progressive spinal cord compromise. It often goes undetected until there are obvious clinical deficits. This typically occurs after a significant number of spinal nerves are compromised, often permanently. Surgical decompression of the spinal cord is usually not performed until there is some degree of permanent neurological compromise. In the future new imaging techniques will be used to help identify spinal cord compromise earlier.

In the future emphasis will be placed on identifying high risk patients before there is obvious loss of spine functions. This will be accomplished by using various methods including MRS for assessing for "in vivo" chemical evidence of spinal cord cellular compromise within the narrowed region of the spinal canal. This will involve identification of ischemic biomarkers, inflammatory biomarkers, and biomarkers of demyelination and/or axonopathy.

In the field of magnetic resonance imaging (MRI) the use of stronger magnets will improve a signal-to-noise ratio which improves imaging quality and reduces data acquisition (scan) times. The improved imaging capacity will reveal more subtle pathological and structural details not otherwise detectable. It will allow for visualization of inracanicular and intraneural tissues. Advances in diffusion-weighted imaging (DWI) will be used to asses those at risk for ischemic injury within the spinal cord and other spinal structure. A derivative technique, diffusion tensor imaging (DTI) will be used to evaluate scalar properties of the diffusivity of extracellular water molecules within white matter fiber tracts. The dataset is will more routinely be used for 3-D reconstruction of white matter tracts in the spinal cord. DWI will be used to asses the altered matrix of neoplastic tissues within or adjacent to the spinal cord. In the future a needless biopsy using MRS will help characterize the lesion.

The nerve fibers of white matter tracts have properties which direct the diffusion pattern of water. The proposed mechanisms of underlying diffusion anisotropy include the myelin sheath, the axonal cytoskeleton, local susceptibility artifacts and fast axonal transport. The diffusion pattern of water can be measured and turned into an image. The current clinical application of diffusion-weighted imaging (DWI) of the human spinal cord is limited by a few technical challenges. These challenges will be overcome in the near future.

Fractional anisotropy (FA) will routinely be used to perform specific spinal cord fiber tract studies. FA refers is derived from DTI computations and represents the global anisotropy of tissues. These studies will be used to characterize myelination, axonal thickness, collective nerve fiber/fiber tract volume, and spinal intraparenchymal morphological parameters. Changes in fractional anisotropy and mean diffusivity may become sufficient enough to differentiate between potentially reversible edema and irreversible gliosis in the spinal cord in patients who have spinal canal narrowing secondary to spondylosis. The determination of eiginvalues will be used to help stratify subgroups of patients with spinal cord compression, a step which will help determine the best treatment options. DWI will also be used to assess structural integration of the vertebral body including the subchondral endplate region adjacent to the intervertebral disc.

In vivo magnetic resonance spectroscopy (MRS) (proton spectroscopy) will be used to measure metabolite concentration, biochemical ratios, and to perform metabolic mapping of the spinal cord and other spinal tissues. A growing number of metabolites can be identified with MRS, many within the central nervous system. Spinal cord spectroscopy has the potential to add metabolic information to the routine spinal cord MRI. Currently, spinal cord spectroscopy remains challenging due to technical factors such as magnetic field inhomogeneities, CSF pulsation and the relatively small field of view. These factors limit the quality of the acquired data although these challenges will soon be overcome. Metabolite quantification in the spinal cord will offer new opportunities for clinical correlation and research. For example, the metabolite N-acetyl aspartate (NAA) has been shown to be a biomarker of axonal integrity within the central nervous system. Its levels correlate well with motor disability. MRS may be used to assess the pre-myelopathic state.

In the future acquired spectroscopy data may be merged with magnetic resonance angiography (MRA) data to help detect early disease/compromise. Intraparenchymal assessment of blood flow could be correlated with region specific ischemic biomarkers. This can further be correlated with the diffusivity of water within white matter tracts along with the evaluation of segmented spinal tract morphology and volumetrics.

Some functional MRI (fMRI) studies of the spine have been performed with limited success due to technical challenges which will likely be overcome in the future. It the challenges are overcome future fMRI studies may be used to help investigate the spinal cord processing of pain stimuli. Progression to the use of perfusion-based fMRI could help reveal ischemic regions within the spin cord which are vulnerable for progression to infarction. In the future perfusion based fMRI may be correlated with the use of MRS to evaluate for metabolites which serve as ischemic biomarkers.

Magnetic resonance myelographic (MRM) will be perfected to provide a non-invasive method for assessment of nerve root sheaths, the effect of intradural adhesions/masses on CSF flow and to evaluate other perineural pathology. Emerging techniques will be applied to imaging the intervertebral disc and related pathology. The dynamics of intradiscal metabolite concentration and water diffusivity will be revealed which will help determine the prognosis and stability of disc degeneration and disruption. All of these advances will improve the post-operative imaging workup. Improved 3D reformatting will enhance the detection of tissue and instrument displacement as well as the presence of scar as well as recurrent and/or residual pathology. DTI hat high field strength shows promise in the assessment of all spinal cord pathologies.

Next:  Future Role of Traditional and Virtual Organizations

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15

Inform a Colleague

Expand and Educate Your Spinecare Network

Welcome to the Inform a Colleague area of the Academy Website. The American Academy of Spine Physicians (AASP) strives to implement new and more efficient methods for members to communicate with other healthcare professionals. One of the most effective tools is the online "Inform a Colleague" function. This function can be used to expand and educate your spinecare referral network. It also represents a resource to conveniently inform others about trends in spinecare and about offers of organizations such as the American Academy of Spine Physicians (AASP), the International Spine Association (ISA). The link library also contains an application for membership with the AASP.

The online "Inform a Colleague" feature provides an invaluable time-saving service for keeping spinecare professionalsup-to-date, expanding the spinecare network, stimulating interdisciplinary referrals and for inviting colleagues to join the AASP. The library of links is always being updated with useful information and resources. The linked messages can be used to

***Edit and/or add text where appropriate** (Inform one or more colleagues)

Email To:(Required)
Email From:(Required)

Attach Links

Learn More - 109
AASP Mission - 995
Academy Council - 996
AASP Goals - 998
Position Statements - 999
Benefits of Cooperative Spinecare - 1001
Contact Us - 1002
Buying Advantage Program FAQs - 12592
Physician FAQs - 12595
Public FAQs - 12597
Credentialing FAQs - 12599
Spinecare Facts - 12604
Scientific Consultants - 12619
Spinecare Data Science Committee - 13995

Free Resources - 110
Directory Listings - 1003
eNewsletter Signup - 1004
Brochures and Script Pads - 1005
Steps to Marketing Success - 1009

Healthcare Professionals - 111
Reasons to Join/Renew - 575
Membership Application - 13826
Inform A Colleague - 14012

AASP Members - 112
Member Login - 583
Reasons to Join/Renew - 584

Directory Access - 113
International Directory of Spinecare Professionals - 588
International Directory of Spinecare Facilities - 589
International Directory of Spinecare Products - 590

AASP News - 115
AASP News - 598
Members in the News - 602
Spinecare Data Science Committee - 13996

Corporate Opportunites - 116
Overview - 603
Directory of Spinecare Products - 607
Product Endorsement - 608
Corporate Opportunities - 609
Contact Us - 610
Good Choices Program - 12613

Physicians - 122
Continuing Education and Credentialing - 1183
International Spine Association - 1186

Student / Resident - 123
Information Script Forms - 1190
International Spine Association - 1192

Public - 126

Website Links - 276
American Academy of Spine Physicians - 1278
International Spine Association - 1279
International Directory of Spinecare Professionals - 1280
Attach Brochures

30 Tips for Better Spine Health
AASP Continuing Education and Credentialing
AASP Continuing Medical Education Affiliate Member
International Spinecare Directory
Online Public Information Center


Untitled Document enews

Join / Renew

This level of membership is for physicians (MD, DC, DO) whose practice/interest includes patients with spinal disorders. ($295)

Affiliate Member:
This level of membership is for allied healthcare professionals involved in spinecare and/or spine research. This includes physical therapists, massage therapists, exercise physiologists, nurse practitioners, nurses, physician's assistants, diagnostic technicians, surgical technicians, exercise instructors, personal trainers and individuals who hold a PhD and work in the field of spinecare. ($150)

Candidate Member:
This level of membership is for residents, fellows and students who have an interest in spinecare. ($35)

Membership Renewal

Membership will automatically renew each calendar year starting from the date of membership renewal or membership acceptance unless the AASP is specifically notified in writing by the member at least 30 days prior to their renewal date. Please address all correspondence to the AASP Office of Member Services.

Review the accuracy of your contact information and practice profile information including your email address. To update your profile online go to www.spinephysicians.org and login using your unique member ID and PIN as noted below.

Please notify the AASP if you no longer meet membership criteria. This includes maintaining an active license to practice.


American Academy of Spine Physicians

Submit communication below:

First Name:
Last Name:
Phone Number:
Zip Code:
Interest: Request Call from Member Services
Speaking Request
Continuing Education
Reasons to Join
Billing Inquiry
Captcha Code

AASP Membership Office

Address: 1795 Grandstand Place
City: Elgin
State: Illinois
Zip Code: 60123-4980
Telephone: (847) 697-4660
Fax: (847) 931-7975
Email: aasp@spinephysicians.org
FREE Directory Signups
  • AASP
  • AASP
  • AASP
  • AASP
  • >
Our Educational Partners AASP