Tuesday, July 2, 2013

The Chiropractic Advantage


Chiropractic care can be beneficial to almost every person. Chiropractic is a system of diagnosis and the treatment is based on the concept of spinal misalignment causing nerve irritation. Chiropractic care can help the patient's body functions. Using the care of a chiropractor helps to manipulate and adjust your body's structure in order to align the vertebra properly. The nerves that come out of the spinal column control the body's functions such as your vital organs, sensations, muscles, and all movement by your extremities. If you have any vertebra that are out of place, they can cause subluxations, or small dislocations of your vertebra, which then cause nerves to become irritated or "pinched." The results of these "pinched" nerves are pain, muscle tension, numbness and tingling in extremities, burning, and loss of sensation. Subluxation is the foundation of chiropractic and is what chiropractors manipulate in order to allow the nervous system to function at an optimal level.

Chiropractors correct these misalignments by gently adjusting the position of the vertebrae of the spine, reducing or eliminating neuropathy (changes in the pathology of the nerves) thus allowing your body to properly self-regulate, adapt and heal. In general, proper chiropractic treatment of your body's lumbar, or lower back, region, involves very little risk and the rewards can be significant.

Chiropractic can be especially helpful in relieving pain for facet joint injuries, osteoarthritis, and sacroiliac joint dysfunction, because such conditions respond well to mobilization. Moreover, scores of patients with chronic headaches, sinus problems, high blood pressure, ear infections, leg pain, arthritis, and many other illnesses have reported significant relief after chiropractic therapy. Chiropractors diagnose and treat a broad range of physical conditions in patients with muscular, nervous, and skeletal problems, especially the spine.

Chiropractors make use of conventional diagnostic tests, such as X-rays, MRI, and lab work, as well as specific procedures that involve manipulation by hand of various parts of the body. Chiropractors are best known for their ability to correct misalignments of the spine. But spinal manipulation is only a small part of what chiropractors do as part of an overall plan to manage and relieve pain and many kinds of ailments. Other kinds of treatments chiropractors are capable of providing include:


  1. Electrotherapy

  2. Therapeutic exercise

  3. Ice/heat therapy, including therapeutic ultrasound

  4. Lifestyle and nutrition counseling

  5. Massage therapy

  6. Physical rehabilitation

  7. Stress management

Following chiropractic treatment, your body will start to realign and relieve yourself from any pressure that is causing pain in your joints. In mild cases, a patient will immediately experience relief soon after undergoing chiropractic care. Hence, this is one of the advantages of opting for chiropractic care over surgical or medical procedures that often require a long recovery period.

In other cases, there might be a slight feeling of soreness or aching that can be felt with chiropractic treatment. The reason for this is that your body has to readjust to the realignment done after being misaligned for a while.

However, it shouldn't take long either before your body can regain its normal function and mobility.

Pain Management With PEMF Therapy


The issue of pain treatment is an extremely urgent health and socio-economic problem. Pain, in acute, recurrent and chronic forms, is prevalent across age, cultural background, and sex, and costs North American adults an estimated $10,000 to $15,000 per person annually. Estimates of the cost of pain do not include the nearly 30,000 people that die in North America each year due to aspirin-induced gastric lesions 17% of people over 15 yr of age suffer from chronic pain that interferes with their normal daily activities. Studies suggest that at least 1 in 4 adults in North America is suffering from some form of pain at any given moment. This large population of people in pain relies heavily upon the medical community for the provision of pharmacological treatment. Many physicians are now referring chronic pain sufferers to non-drug based therapies, that is, "Complementary and Alternative Medicine," in order to reduce drug dependencies, invasive procedures and/or side effects. The challenge is to find the least invasive, toxic, difficult and expensive approach possible.

The ability to relieve pain is very variable and unpredictable, depending on the source or location of pain and whether it is acute or chronic. Pain mechanisms are complex and have peripheral and central nervous system aspects. Therapies should be tailored to the specifics of the pain process in the individual patient. Psychological issues have a very strong influence on whether and how pain is experienced and whether it will become chronic. Most effective pain management strategies require multiple concurrent approaches, especially for chronic pain. It is rare that a single modality solves the problem.

In the past few years a new and fundamentally different approach has been increasingly investigated. This includes the use of magnetic fields (MF), produced by both static (permanent) and time-varied (most commonly, pulsed) magnetic fields (PEMFs). Fields of various strengths and frequencies have been evaulated. There is as yet no "gold standard". The fields selected will vary based on experience, confidence, convenience and cost. Since there does not appear to be any major advantage to any one MF application, largely because of the unpredictability of ascertaining the true underlying source of the pain, regardless of the putative pathology, any approach may be used empirically and treatment adjusted based on the response. After thousands of patient-years of use globally, there very little risk has been found to be associated with MF therapies. The primary precautions relate to implanted electrical devices and pregnancy and seizures with certain kinds of frequency patterns in seizure prone individuals.

Magnetic fields affect pain perception in many different ways. These actions are both direct and indirect. Direct effects of magnetic fields are: neuron firing, calcium ion movement, membrane potentials, endorphin levels, nitric oxide, dopamine levels, acupuncture actions and nerve regeneration. Indirect benefits of magnetic fields on physiologic function are on: circulation, muscle, edema, tissue oxygen, inflammation, healing, prostaglandins, cellular metabolism and cell energy levels.

Most studies on pain use subjective measures to quantitate baseline and outcome values. Subjective perception of pain using a visual analogue scale (VAS) and pain drawings is 95% sensitive and 88% specific for current pain in the neck and shoulders and thoracic spine.

Measured pain intensity (PI) changes with pain relief and satisfaction with pain management. Based on a numerical descriptor scale (NDS) and a visual analog scale (VAS), the average reduction in PI with medical treatment in an emergency room setting was 33%. A 5%, 30%, and 57% reduction in PI correlated with "no," "some/partial," and "significant/complete" relief. If initial PI scores were moderate/severe pain (NDS > 5), PI had to be reduced by 35% and 84%, to achieve "some/partial" and "significant/complete" relief, respectively. Patients in less pain (NDS < or = 5) needed 25% and 29% reductions in PI. However, relief of pain appears to only partially contribute to overall satisfaction with pain management.

Several authors have reviewed the experience with pulsed magnetotherapy (PEMF) in Eastern Europe and the west. PEMFs have been used extensively in many conditins and medical disciplines. They have been most effective in treating rheumatic disorders. PEMFs produced significant reduction of pain, improvement of spinal functions and reduction of paravertebral spasms. Although PEMFs have been proven to be a very powerful tool, they should always be considered in combination with other therapeutic procedures.

Certain pulsed electromagnetic fields (PEMF) affect the growth of bone and cartilage in vitro, with potential application as an arthritis treatment. PEMF stimulation is already a proven remedy for delayed fractures, with potential clinical application for osteoarthritis, osteonecrosis of bone, osteoporosis, and wound healing. Static magnets may provide temporary pain relief under certain circumstances.

The ability of PEMFs to affect pain is dependent on the ability of PEMFs to positively affect human physiologic or anatomic systems. Research is showing that the human nervous system is strongly affected by therapeutic PEMFs. Behavioral and physiologic responses of animals to static and extremely low frequency (ELF) magnetic fields are affected by the presence of light.

One of the most reproducible results of weak, extremely low-frequency (ELF) magnetic field (MF) exposure is an effect upon neurologic pain signal processing. Pulsed electromagnetic field (PEMFs) have been designed for use as a therapeutic agent for the treatment of chronic pain in humans. Recent evidence suggests that PEMFs would also be an effective complement for treating patients suffering from acute pain. Recent studies also suggest that magnetic field treatments involving the manipulation of standing balance would be effective in the determination of the etiology of chronic pain and hence be effective in the diagnosis of the underlying disease state. Static magnetic field devices with strong gradients have also been shown to have therapeutic potential. Specifically placed static magnetic field devices, such as the Magnabloc device, have been shown to reduce neural action potentials in vitro and alleviate spinal mediated pain in human subjects. Human studies involving the induction of analgesia, whether utilizing pharmacology or magnetic field treatments, also need to account for the placebo response, which may explain as much as 40% of the analgesia response. However, the placebo response, or at least the central nervous system mechanisms responsible for the placebo response, may be an appropriate target for magnetic field induced therapies. Magnetic field manipulation of cognitive and behavioral processes has been well-documented in animal behavior studies and subjective-measure studies involving human subjects, which may also be one of the mechanisms of the use of MFs in managing pain.

Since the turn of this century, a number of electrotherapeutic, magnetotherapeutic and electromagnetic medical devices have emerged for treating a broad spectrum of trauma, tumors and infections with a static, time-varying and/or pulsed fields. Over the years, some of these non-invasive devices have proven highly efficacious in certain applications, notably bone repair, pain relief, autoimmune and viral diseases (including HIV), and immunopotentiation. Their acceptance in clinical practice has been very slow in the medical community. Practitioner resistance seems largely based on confusion of the different modalities, the wide variety of frequencies employed (from ELF to microwave) and the general lack of understanding of the biomechanics involved. The current scientific literature indicates that short, periodic exposure to pulsed electromagnetic fields (PEMF) has emerged as the most effective form of electromagnetic therapy.

Magnetotherapy is accompanied by an increase in the threshold of pain sensitivity and activation of the anticoagulation system. PEMF treatment stimulates production of opioid peptides; activates mast cells, Langerhans', and Merkel cells, promotes vacuolization of sarcoplasmic reticulum and increases electric capacity of muscular fibers. Long bone fractures that did not unite over 4 mo to 4 years are repaired in 87% of cases with 14-16 hr of daily PEMF treatment. Several of these devices are FDA approved. PEMF of 1.5- or 5-mT field strength, proved helpful edema and pain before or after a surgical operation. Results of studies and experience with PEMF argue for a wider introduction of PEMF treatment techniques in clinical practice.

Treatment of bone pathologies, nerve and ligament regeneration, pain, and inflammation has prompted research on the fundamental mechanism of action. Such studies have centered on modifications of membrane transport activity and the effect of small changes in ionic fluxes on metabolism, cAMP levels, and on stimulation of mRNA and protein synthesis. A limited number of specific combinations of EMF parameters stimulate cellular activities. Departures from these specific field characteristics may produce opposite effects. PEMF for 15-360 minutes increased amino acid uptake about 45%. Uptake of AIB then declined progressively but was still significantly higher after 6 hr in exposed skin than in controls. Comparison of the effect of PEMF for 2 hr induced conformational changes in transmembrane energy transport enzymes, allowing energy coupling and transduction of absorbed resonant PEMF energy into transport work.

Research has been conducted since 1990 in Italy the effects of EMFs on animal responses to adverse environmental stimuli. Researchers demonstrated that ELFs lowered the density of pigeons' brain mu opiate receptors by about 30% and decreased their pain perception. Similar were obtained by Canadian reserachers in mice and snails with various kinds of MFs. A 2 hr exposure of healthy humans was found to reduce pain perception and decreased pain-related brain signals. Treatment with a sinusoidal 100 Hz MF was found to induce analgesic and therapeutic effects, supported by evidence of biophysical effects in cell cultures and guinea pigs. Biochemical changes were found in the blood of treated patients that supported the pain reduction benefit.

Several magnetic fields with different characteristics have been shown to reduce pain inhibition (i.e. analgesia) in various species of animals including land snails, mice, pigeons, as well as humans. 0.5 Hz rotating MF, 60 Hz ELF magnetic fields and MRI reduced analgesia induced by both exogenous opiates (i.e. morphine) and endogenous opioids (i.e. stress-induced). Reduction in stress-induced analgesia can be obtained not only by exposing animals to a variety of different magnetic fields, but also after a shortterm stay in a near-zero magnetic field. This suggests that even for magnetic field, as for other environmental factors (i.e. temperature or gravity), alterations in the normal conditions in which the species has evolved can induce alterations in physiology as well as in behavior.

Various electromagnetic fields (EMFs: microwaves, pulsed, low-frequency, and constant magnetic fields and magnetically-shielded spaces) have been applied to fish, birds, mice, rats, cats, rabbits, and humans to the head or to an extremity, from 1 to 60 minutes, with intervals from several minutes to several hours, randomly sequenced with sham exposures. Brain reactions were studied by psychophysiological, behavioral, electrophysiological, and histological methods, and compared to reactions evoked by "standard" stimuli (light and sound). Multiyear studies showed a non-specific initial response (NSIR) of the brain to various EMFs. EMF-induced changes in brain function were regarded as "modulatory" and manifested themselves as a greater probability of sensory responses to EMF exposures than to sham exposures. The sensory reactions were a weak pain, tickling, pressure, etc., mediated by the body's sensory systems. Reactions could be prevented by local anesthesia of the exposed area. EEG-responses were enhancement of the low-frequency rhythms and were particularly pronounced with mechanical or radiation brain damage. Cell analysis showed that all types of cells (neurons, glia, vascular wall cells) react to EMFs, while astroglial cells were most sensitive; the function of astrocytes is known to be related to memory processes and slow activity in the EEG.

Chronic pain is often accompanied with or results from decreased circulation or perfusion to the affected tissues, for example, cardiac angina or intermittent claudication. PEMFs have been shown to improve circulation. Skin infrared radiation increases due to immediate vasodilation with low frequency fields and increased cerebral blood perfusion in animals. Pain syndromes due to muscle tension and neuralgias also improved.

Another group having more than 20 yr experience of using magnetic or electromagnetic fields (EMF) in the treatment of about 1500 patients with trauma, musculoskeletal diseases, circulation and nervous system problems. They used various magnetic devices produced in Eastern Europe, including static magnetic fields (SMF), sinusoidal or PEMF extremely low-frequency fields (ELF EMF) and extremely high-frequency (EHF) EMFs ranging in field strength from 1-40 mT. Treatments lasted from 20-30 minutes per day, to 5-8 hr per day for up to 3-4 wk. The treatments had anti-pain, anti-edema, antiinflammatory, macro- and microcirculation benefits. The results of the treatment depended not only on the parameters of the fields but also on the individual sensitivity of the organism.

PEMFs can vary widely in frequencies, waveforms, harmonics and duty cycles. The most effective results in clinical use were found with extremely ultra low frequency PEMFs.

Back pain is endemic in North America. Lumbar arthritis is a very common cause of back pain. 35-40 mT PEMFs, for 20 min daily for 20-25 days successfully treat back pain. This was shown in 220 patients and 60 controls. Relief or elimination of pain, improved rehabilitation and improvement of secondary neurologic symptoms. Continuous use over the treatment episode works best, in about 90-95% of the time. The control patients only showed a 30% improvement.

Chronic back pain treated for 2 to 12 years with PEMFs, which failed other treatment modalities, also improves. PEMF is used at the site of pain and related trigger points for 20 to 45 minutes as found in single and double blind studies, in patients from 41 to 82 yr of age. The field strengths were from 5 to 15 G in the frequency range from 7 Hz to 4 kHz. Pain elimination was measured by visual analogue scale (VAS) scale. The VAS value 0, no pain to 10, maximum pain is recorded before and after each treatment session. Some patients remain pain free 6 months after treatment. Some return to jobs they had been unable to perform. Short term effects are thought due to decrease in cortisol and noradrenaline and an increase serotonin, endorphins and enkephalins. Longer term effects may be due to a CNS, peripheral nervous system biochemical and neuronal effects in which correction of pain messages occurs and the pain is not just masked as in the case of medication.

The benefits of PEMF use may last considerably longer than the time of use. In rats, a single exposure produces pain reduction both immediately after treatment and at 24 hrs after treatment. The analgesic effect is observed also at 7th and 14th day of repeated treatment and also at 7th day and 14th day after the last treatment.

High frequency PEMF over 10-15 single treatments every other day either eliminates or improves, even at 2 weeks following therapy, in 80% of patients with pelvic inflammatory disease, 89% with back pain, 40% with endometriosis, 80% with postoperative pain, and 83% with lower abdominal pain of unknown cause.

Post-herpetic neuralgia (PHN), a very common and painful condition, which is often medically-resistant, responds to pulsed magnetic field (PEMF) and whole body AC magnetic field (ACMF) stimulation. PEMF therapy was for 20-30 minutes daily for 19 treatments over 34 days and ACMF therapy 30 minutes daily for 38 treatments over 85 days. The PEMF was a 4-16 Hz and 0.6-T samarium/cobalt magnet system surrounded by spiral coil pads with a maximum 0.1-T pulse at 8 Hz. The pads were pasted on the pain/paresthesia areas. The ACMF treatment bed consisted of 19 electrodes containing paired coils producing 0.08 T sine wave pulses. Three electrodes were applied to the head region, 3 to the thoracoabdominal region, 4 to the dorsolumbar region, 6 to the upper limbs, and 3 to the lower limbs. Both treatments continued until symptoms improved or an adverse side effect occurred. Pain was rated on a 10 point VAS scale and paresthesia on a 5 point scale. Outcomes were also evaluated clinically with infrared thermography and Doppler ultrasonography to assess blood flow. PEMF therapy was effective in 80%. No pain was made worse. ACMF therapy was effective in 73%. The average pain score following the first treatment was better for PEMF vs ACMF.

The use of PEMFs is rapidly increasing and extending to soft tissue from its first applications to hard tissue. EMF in current orthopedic clinical practice is used to treat delayed and non-union fractures, rotator cuff tendinitis, spinal fusions and avascular necrosis, all of which can be very painful. Clinically relevant response to the PEMF is generally not always immediate, requiring daily treatment for several months in the case of non-union fractures. PEMF signals induce maximum electric fields in the mV/cm range at frequencies below 5 kHz. Pulse radiofrequency fields (PRF) consist of bursts of sinusoidal waves in the short wave band, usually in the 14-30 MHz range. PRF induces fields in the V/cm range. PRF signals have higher field strengths than PEMFs. PRF signals have low frequency bursts nearly equivalent in size to PEMFs. This means that PRF signals have a broader band. PRF applications are best for reduction of pain and edema. The tissue inflammation that accompanies the majority of traumatic and chronic injuries is essential to the healing process, however the body often over-responds and the resulting edema causes delayed healing and pain. For soft tissue and musculoskeletal injuries and postsurgical, post-traumatic and chronic wounds, reduction of edema is thus a major therapeutic goal to accelerate healing and associated pain. Double-blind clinical studies have now been reported for chronic wound repair, acute ankle sprains, and acute whiplash injuries. PRFs accelerated reduction of edema in acute ankle sprains by 5-fold. Response to MFs is during or immediately after treatment of acute injuries. Responses are significantly slower for bone repair. The voltage changes induced by PRF at binding sites in macromolecules affect ion binding kinetics with resultant modulation of biochemical cascades relevant to the inflammatory stages of tissue repair.

Treatment of persistent neck pain, studied in a double-blind, placebo-controlled trial, reduced pain and improved mobility with a low-power pulsed short wave 27 Hz diathermy system. The neck pain lasted longer than 8 wk and was unresponsive to at least 1 course of nonsteroidal anti-inflammatory drugs. A soft cervical collar was fitted with a miniaturized, pulsed, short-wave diathermy generator. Each unit was powered by two 9-V batteries and had a frequency of 27 MHz. Treatments were for 3-6 weeks, 8 hr daily, analgesics could be used as needed and nonsteroidal anti-inflammatory drugs. 75% of the patients improved in range of motion and pain within 3 wk of treatment.

PEMFs applied to the inner thighs for at least 2 wk is an effective short-term therapy for migraine. Greater reduction of headache activity is possible with longer exposure. PEMF using a 27.12-MHz signal to the inner thigh femoral artery area for 1 hr/day, 5 day/wk, for 2 weeks decreases headache. One month after a treatment course, 73% of patients report decreased headache activity vs. only half of those receiving placebo treatment. Another 2-wk of treatment after the 1-month follow-up gave an additional 88% decrease in headache activity. If there is no additional treatment after an initial course 72% still show a benefit. Placebo patients getting active treatment afterwards report much better additional improvement in headache.

Repetitive magnetic stimulation (rMS) has been found to relieve musculoskeletal pain. Specific diagnoses were painful shoulder with abnormal supraspinatus tendon, tennis elbow, ulnar compression syndrome, carpal tunnel syndrome, semilunar bone injury, traumatic amputation neuroma of the median nerve, persistent muscle spasm of the upper and lower back, inner hamstring tendinitis, patellofemoral arthrosis, osteochondral lesion of the heel and posterior tibial tendinitis. Patients received rMS for 40 minutes. rMS was applied. 8,000 pulsed magnetic stimuli were applied in 40 min sessions. A VAS rated pain severity. Mean pain intensity 59% lower vs 14% for sham treated. Patients with amputation neuroma and patellofemotal arthritis obtained no benefit. Those with upper back muscle spasms, rotator cuff injury and osteochondral heel lesions showed more than 85% decrease in pain even after a single rMS session. Pain relief persists for several days. None had worsening of their pain.

Results obtained to date with PEMF therapy in animal models and clinical human studies suggest that this type of treatment can reduce edema, but only during treatment sessions. PRF applied for 20-30 min causes a significant decrease in edema lasting several hours. PRF seems to affect sympathetic outflow, inducing vasoconstriction, which in turn restricts movement of blood constituents that promote edema from vascular to extravascular components at the injury site. The passage of electrical current through the tissue displaces negatively charged plasma proteins normally found in the interstitium of traumatized tissue. This increased mobility could accelerate protein uptake by lymphatic capillaries, thereby increasing lymphatic flow, an established mechanism for extracellular fluid uptake. Each pathological stage in an injury may require different PRF parameters for optimal effects. PRFs promote healing of soft tissue injuries by reducing edema and increasing the rate of reabsorption of hematomas.

Osteoarthritis (OA) affects about 40 million people in the USA. OA of the knee is a leading cause of disability in the elderly. Medical management is often ineffective and creates additional side-effect risks. The QRS has been in use for about 20 yr in Europe. The QRS applied 8 min twice a day for 6 weeks improved knee function and walking ability significantly. Pain, general condition and well-being also improved. Medication use decreased and plasma fibrinogen decreased 14%, C-reactive protein 35% and blood sedimentation rate 19%. The QRS has also been found effective in degenerative arthritis, pain syndrome and inflammatory joint disorders. Sleep disturbances often contribute to increased pain perception. The QRS has also been found to improve sleep. 68% reported good/very good results. Even after one year follow-up, 85% claimed a benefit in pain reduction. Medication consumption decreased from 39% at 8 weeks to 88% after 8 weeks.

PEMF for 15 min for 15 treatment sessions improved hip arthritis pain in 86% of patients. Average mobility without pain improved markedly.

Post-traumatic Sudeck-Leriche syndrome (late stage reflex sympathetic dystrophy - RSD) is very painful pain and largely untreatable. Ten 30-minute PEMF sessions of 50 Hz followed by a further 10 sessions at 100 Hz plus physiotherapy and medication reduced edema and pain at 10 days with no further improvement at 20 days.

Patients suffering from headache were treated with a PEMF over a 5-year period after failing acupuncture and medications. PEMF applied to the whole body, 20 min/day for 15 days were very effective for migraine, tension and cervical headaches at one month after treatment. They had at least a 50% reduction in frequency or intensity of the headaches and reduction in analgesic drug use. Poor results were observed in cluster and posttraumatic headache. Neuropathic pain syndrome (NPS) patients benefit from pulsed radiofrequency (PRF) treatment. Patients had severe left-sided sciatica and back pain, neuropathic pain in the anterior chest wall associated with removal of a tumor from the left pleural cavity, left-sided sciatica in a classical sacral root distribution and low back pain and left sided sciatica. All patients had been taking oral medications and had received repeated injections of local anesthetic agents and steroids with poor results. The patients were treated with a 300-kHz PRF. Treatments were applied to left L5 dorsal root ganglion (DRG) for 2 minutes, the spinal roots of the T2-T4 dermatomes and the left L5 DRG and S1 root and to the left L5 DRG, respectively. All patients experienced significant pain relief.

Three hundred-fifty-three patients with chronic pain, treated with PEMFs, were followed for 2-60 months. They noted better results in patients with post-herpetic pain and in patients simultaneously suffering from neck and low back pain.

Chronic pain is often mediated by aberrantly functioning small neural networks involved in selfperpetuated neurogenic inflammation. High intensity pulsed magnetic stimulation (HIPMS) noninvasively depolarizes neurons and can facilitate recovery following injury.

Patients suffering from posttraumatic or postoperative low-back pain, reflex sympathetic dystrophy, peripheral neuropathy, thoracic outlet syndrome and endometriosis had pain relief. Up to ten,10-min exposures to 1.17 T at a rate of 45 pulses/min using a custom-built magnetic stimulator were applied to the areas of maximal pain for 6 treatments and 4 sham treatments in random order. Pain was rated on a VAS. One patient became pain free after 4 HIPMS treatments. All patients reported some pain relief. Pain relief ranged from 0.4 to 5.2 vs 0 to 0.5 for sham treatments. The average amount of pain relief per 10-minute treatment was 1.86 for HIPMS and 0.19 for sham treatment. Maximum pain relief occurred 3 hr after treatment. Two patients had complete pain relief and 3 had partial pain relief that lasted for 4 months. The other subjects experienced pain relief that lasted for 8-72 hr. The action of HIPMS on pain is probably mediated by eddy currents induced in the exposed tissues.

Chronic musculoskeletal pain treated with MFs for three days, at one per day. EMF is an alternative to standard therapeutic practices, in the elimination and/or maintenance of chronic musculoskeletal pain.

A double-blind clinical study evaluated the effectiveness of low strength extremely low frequency PEMFs for treating knee pain in osteoarthritis. Treatment was for eight 6-min sessions over a 2-wk period. Each patient recorded perceived pain on a 10-point scale before and after each treatment session. Patients did not use pain medication or other pain treatment. The active treatment group perceived a 46% decrease in pain vs. an average 8% in the placebo group. 2 wk after the study concluded, pain decreased 49% vs the the placebo group's 9% decrease.

Weak AC magnetic fields affect pain perception and pain-related EEG changesin humans. 2 hr exposure to 0.2-0.7G ELF magnetic fields in a placebo-controlled double-blind crossover design caused a significant decrease in pain-related EEG levels.

PEMFs are a real aid in the therapy of orthopedic and trauma problems after even only 6 months of experience.

A static magnetic foil placed in a molded insole for the relief of heel pain was used for 4 weeks to treat heel pain. 60% of patients in the treatment and sham groups reported improvement. There was no significant difference in the improvement on a foot function index. A molded insole alone was effective after 4 weeks. The magnetic foil offered no advantage over the plain insole, in this study. This study like others with low numbers of patients, may not have had a large enough sample. Placebo reactions in pain studies can be large and differences in benefit may be harder to detect. In addition, since magnetic foils produce fairly weak fields, placement against tissue becomes important, as does consideration of the depth into the body of the target lesion or tissue. Magnetic fields drop off in strength very rapidly from the surface.

Pain patients with lumbar radiculopathy or whiplash syndrome had a PEMF applied twice a day for two weeks and their pain medications decreased. Radiculopathy pain relief happened in 8 days in the PEMF group vs 12 days in the controls. Headache pain was halved in the PEMF group and one third less of neck and shoulder/arm pain vs control.

In normal subjects, a magnetic stimulus over the cerebellum reduced the size of responses evoked by magnetic cortical stimulation. Suppression of motor cortical excitability was reduced or absent in patients with a lesion in the cerebellum or cerebellothalamocortical pathway. Magnetic stimulation over the cerebellum produces the same effect as electrical stimulation, even in ataxic patients and may be useful for the pain associated with muscle spasticity.

Even small, battery-operated PEMF devices with very weak field strengths have been found to have a benefit in musculoskeletal disorders. This matchbox-sized device was tested in a non-controlled fashion in a general medical practice in a wide age range of individuals. They were treated for between 11 to 132, or 73 days on average, at the site of pain and ranged between 2 times for 4 hours each week to continuous use. Use at night was mainly near the head, e.g., beneath the pillow, to facilitate sleep. Their pain scale scores were statistically significantly positive in the majority of the cases. The conditions treated were arthritis, lupus erythematosus, chronic neck pain, epicondylitis, femoropatellar degeneration, fracture of the lower leg and Sudeck's atrophy.

Chronic low back pain affects approximately 15% of the United States (US) population during their lifetime, with 93 million lost work days and a cost of more than $5 billion per year. Permanent magnetic therapy can be a useful tool in reducing chronic muscular low back pain. The patients were treated with a real or sham flexible permanent magnetic pad for 21 days. Diagnoses included herniated lumbar discs, spondylosis, radiculopathy, sciatica, arthritis. Pain response was measured using a 5 point VAS scale. The experimental group had a significant mean reduction in pain of 1.83 points, while the control group had a mean reduction in pain of 0.333 points (P>0.006). Pain relief varied was experienced as early as 10 minutes to 14 days.

A report of a series of 240 patients treated with PEMFs in a conservative orthopedic practice found decreased pain, increased functionality and ability to take pressure, disappearance of swelling and pathological skin coloration, removal of need for orthopedic devices and decreased reaction to changes in the weather. Treatments were daily for an hour long. Conditions treated were: rheumatic illnesses, delayed healing process in bones and pseudo-arthritis, some with infections, fractures, aseptic necrosis, loosened protheses, venous and arterial circulation, reflex symapatheic dystrophy all stages, osteochondritis dissecans, osteomyelitis and sprains and strains and bruises. Their success rate approached 80%. Many cases had X-ray improvement. They observed reformation of cartilage/bone tissue in one case of destructive cyst of the the hip joint, including reformation of the joint margin. About 60% of loosened hip protheses subjective relief occurred and ability to walk without a cane. X-rays frequently showed a seam of absorption which continued after magnetic field therapy was over. One case of Perthes' disease had complete reformation of the articular head of the hip.

Monday, July 1, 2013

How Laser Spine Surgery Treats Spinal Arthritis


Spinal arthritis is a painful complication that affects the human spine. Medications are the first line of defense for doctors who consider designing a treatment plan for spinal arthritis. The kind of medications prescribed depends on the severity of the symptoms, the general health and age of the individual.

Over the counter medications can be of help to people facing mild or moderate arthritis pain while prescriptions can be used to offer relief to those experiencing severe pain. However, when the prescriptive drugs are used for longer, the patient will suffer from addiction. Also, there are ointments that can be used to treat spinal arthritis and the inflammations that come with it. But if the condition does not improve, other options such as steroid injections can be used.

However, if conservative treatment techniques such as physical therapy and pain medications fail to mitigate the symptoms, advanced procedures such as laser spine surgery are considered. Laser spine surgery can assist in the treatment of spinal conditions such as irritation on local nerves, anatomical abnormalities, herniated disks and many more.

However, with recent developments in the medical field, laser surgery has become the preferred choice for doctors treating spinal arthritis. Laser surgery is a less invasive procedure whose effectiveness in treating a wide range of spinal problems has been proven.

A small incision that's less than a centimeter wide is cut and minute telescopic tubes are inserted thus helping to push the tissues aside. The procedure makes use of endoscope, laser and tiny surgical tools which enables the surgeon peep inside the spine through images displayed on a monitor. If it's discovered that there is excess pressure on the nerve root or spinal cord when the surgery is being done, a huge portion of spinal anatomy gets removed. This may affect the structural ability of the spine.

But many people wonder how laser spine surgery treats spinal arthritis.Because this procedure is non invasive, a small incision is made on the place where the pain emanates and since the incision that's made is too small, the occurrence of infection is minimized. Immediately after the surgery, the patient can return to his or her daily activities. The patient will not have to worry about getting healed from surgical wounds since the incision made on the body will not have scars.

There is no justification for living with spinal arthritis since it can affect your life negatively. If after trying medications and no improvement is in registered, there is need to consider learning how laser spine surgery treats spinal arthritis. This modern treatment technique work by treating the symptoms associated with spinal arthritis and other back problems. This method reduces the time a patient spends in hospital, unlike when traditional surgical procedures are adopted.

The incision made by the surgeons when doing laser spine surgery is less than a centimeter hence there is no detaching muscles so as to gain access to the affected spinal area. Before opting for laser spine surgery, you should learn how laser spine surgery treats spinal arthritis. Talk to your doctor and explore all other possible defense lines which can be used to treat arthritis.

An Overview of Cervical Myelopathy


Cervical myelopathy is a condition that often occurs in middle-aged and older individuals as they shift into middle-age and into the 60s and 70s. It may show up very slowly and lead to substantial problems without sufficient warning signs.

Myelopathy can be a tricky diagnosis to make as it often occurs in a subtle fashion and at times the work up can be non-definitive. Typically cervical myelopathy presents with a few telltale signs and symptoms. If a person comes in and says that they are having difficulty walking and feel like they are off-balance all the time, that may be an indicator of myelopathy. In addition, the individual may state that they are having a tough time with handwriting, or possibly buttoning up their shirts.

The signs and symptoms may be subtle and there may be no pain in the individual's neck. There may be a lot of pain if the patient has concomitant arthritis in the neck. Even if there's no pain, surgery may still be necessary.

The work up for cervical myelopathy includes a physical examination to watch the patient ambulate, to check their manual dexterity, and to look for hyperreflexia to see if those are present.

An MRI study will often show some signal changes within the spinal cord due to something compressing on it. This may be arthritis with overgrowth from either soft tissue or bone, a tumor, a result of a fracture with the bone healing improperly, or something else such as a disc herniation compressing on the spinal cord and causing it to react.

The tricky part may come and if there are no signal changes seen on MRI and no big time compressive elements on the spinal cord. It may take a while for the spinal cord to 'react" to being compressed. One month the spinal cord may look completely normal in size, density, and contrast on the MRI, and the next compression may cause it to have shrunk a bit and have a bright signal to it. Unfortunately, this may not be reversible if it progresses. It's unpredictable.

Another great study in the work up for myelopathy is a nerve conduction and electromyography study. This can show to what extent nerve roots are being affected by the myelopathy. You can also help distinguish between cervical stenosis which is compression of multiple nerve roots as they are trying to get out from the neck, versus cervical myelopathy which is compression of the spinal cord itself.

Treating cervical myelopathy is not a black and white issue. Surgery for cervical myelopathy is definitely indicated if the condition is getting worse in front of the physician's eyes on follow-up visits. The reason is that when you do surgery to decompress the areas on cervical myelopathy that are the problem, you can typically stop the progression of the disease but often not reverse it.

The type of surgery to do for cervical myelopathy is questionable and depends upon where the compression is occurring and how broad it is, as it may only be necessary to do a decompression and not a fusion. More often than not however, along with decompressing the tight areas, the surgeon will perform some kind of fusion to stabilize the area.

Cervical myelopathy is very treatable if seen early. If it's seeing late, the outcome may be sub optimal as even if the surgery is technically done perfectly, it may be impossible to reverse the damage that has been done.

Flat Back Syndrome: A Common Characteristic Of Back Pain


A healthy back has natural curvature. A straight lumbar spine is often an indicator of pain in the L4, L5, S1 region. People lacking lumbar curvature will commonly indicate pain on or near their sacrum. A straight spine involves numerous muscles in the lower body being overly tight. Gaining curvature of the lumbar spine requires lengthening numerous lower body muscles. The psoas muscle, in particular, must be lengthened to bring curvature to the lumbar spine. Active Isolated Stretching (AIS) restores curvature to the lower spine. And more importantly, AIS helps people recover from chronic back pain.

When a person is tight in the lower body, the lumbar region loses its natural curve. The psoas, gluteal (buttocks), and hamstring muscles are almost always involved in a lumbar region that lacks curvature. Many more muscles are involved, but these three are almost always a contributing factor. All three muscles can become tight from numerous hours of sitting. Unfortunately, modern society requires many of us to sit eight to ten hours a day. And this is a major reason why one third of the world population suffers from back pain.

A tightened psoas muscle cannot be massaged to normal length because there are too many points of attachment to be released manually. Chiropractic adjustments would be more effective after AIS treatment because chiropractic does not address psoas tightness in their procedure. PNF stretching uses the wrong position for psoas stretching, which can cause herniation to the discs around the L4, L5, S1 region. Active Isolated Stretching is most effective at opening the psoas muscle, which is essential for restoring the natural lumbar curve. Some therapists incorrectly advise laying and rolling on a foam roller to gain curvature in the lumbar region. This exercise does not bring long term curvature to the lumbar spine because the psoas does not get stretched while using the foam roller.

Muscles attach to bones. Tightness in the psoas, hamstrings, and gluteal muscles will put excessive strain on the pelvis and spine. This tightness will cause the lower spine to lose its natural curve and the discs around L4, L5, S1 will often become strained to the point in which they herniate, bulge, or degenerate. This abnormality in the low back discs can also be restored with AIS therapy because the cause is excessive muscle inflexibility. A herniated, slipped, or bulging disc can return inside the vertebral column when muscular pressure is discontinued. Similarly, a degenerative/herniated disc will stop pinching on the spinal nerves because removing muscular tension will remove nerve pain.

Weakness in the lower body muscles also contributes to a straight spine. Complete rehabilitation from flat back syndrome entails doing lower body strengthening exercises to maintain the natural curve in the low back. After the psoas muscle is lengthened, it needs to be strengthened. Abdominal exercises are an important part of rehabilitation, but it is important to do correct abdominal exercises. Many people perform full sit-ups as abdominal exercises. Full sit-ups are when the hands are interlocked behind the head and the person performs a full ab crunch to the point in which their elbows touch their knees. This is the wrong way to practice abdominal exercises! Full sit-ups will tighten the psoas muscle, which will decrease curvature of the lumbar spine.

A flat back is more of an indicator than a cause of lumbar back pain. Active Isolated Stretching can restore curvature to a straightened spine because one of the primary causes is inflexibility. Conventional stretching, PNF stretching, yoga, Thai massage, or any other type of stretching has failed to grasp key mistakes they are making in their procedure; which is why AIS therapy can restore lumbar curvature while other forms of stretching cannot. One-to-one AIS treatment is the kick start to gaining curvature in the lumbar region. At-home exercises are what maintain correct posture.

My Aching Back!


You've probably heard, or uttered, those words. Doctors hear them often. Back pain is one of the most common complaints in medical practice.

Causes of Neck and Back Pain

What would cause a sharp searing pain on my right back side? What causes upper back shoulder pain and neck pain? What causes neck and back pain?

These are but a few of the questions asked by millions who suffer back pain each year - about 6 million in the U.S. alone. An estimated 80% of us will experience back pain sometime in our lives. It may occur by itself, or be accompanied by other symptoms such as fever and chills.

The causes of back pain are many, making diagnosis difficult and critical. We recommend that you see your doctor for all back pain. Most causes of back pain involve no serious underlying problem, and the pain can be relieved in a few days or weeks. If the causes of back pain you experience involve other symptoms, the tips offered here are not to be followed without medical advice.

Causes of Back Pain in the Lower Back

Low back pain affects the lower part of your back - between the bottom of your ribs in back down to the top of your legs.

Doctors break down low back pain into three categories according to how long you have had it:

1. Acute Low Back Pain - you have had it less than 6 weeks
2. Sub-acute Low Back Pain - you have had it 6 to 12 weeks
3. Chronic Low Back Pain - you have had it longer than 3 months

Causes of back pain in the lower back are most often linked to strain of back muscles, ligaments, or tendons. Sometimes the cushion between the bones is strained. Sometimes you will know the exact causes of back pain in your lower back. Other times, it may hit without warning.

Causes of back pain in the lower back include:

* past injuries that are not fully healed

* incorrect lifting techniques

* incorrect posture

* little exercise

* vehicular accidents

* improper setup of your work area

* long hours at a desk

* long hours by the TV

* obesity

* pregnancy

Causes of Back Pain in the Mid Back

The causes of back pain in the mid back usually fall into the category of irritation or injury to muscles and ligaments of your middle spine - the area along the backs of your ribs.

Some or all of the following may be causes of back pain in your mid back:

* past injuries that are not fully healed

* incorrect lifting techniques

* incorrect posture

* little exercise

* vehicular accidents

* improper setup of your work area

* long hours at a desk

* long hours by the TV

* obesity

* pregnancy

Causes of Back Pain in the Upper Back and Neck

Some people refer to this as upper back shoulder pain and neck pain. This pain is felt in the area between the back of your chest and the base of your skull.

Causes of back pain in your upper back, unrelated to the shoulders and neck, are usually muscular irritation and joint dysfunction.

Shoulder and neck pain are more common than pain in the center of your upper back. Your neck supports your head. Made of seven, stacked vertebrae bones that are cushioned by cartilage discs bound together with ligaments, your neck is very mobile. Muscles provide movement and support to your neck.

Your neck is more susceptible to injury than the rest of your upper back. Trauma, poor posture, and degenerative diseases such as arthritis, are the most common causes of back pain in the neck area. Whiplash is another cause of back pain in the neck.

If you were a vehicle passenger involved in a rear end collision, you may have suffered whiplash injury to your neck. The impact of the collision would force your head back and then forward at a great speed. This would stretch your neck and upper back too much and too quickly, resulting in a strain or tear to supporting ligaments, muscles and discs. It could even irritate your upper back nerves.

Your shoulder is a ball and socket joint that offers a large range of movement. Like your neck, this mobile joint tends to be more susceptible to injury. Your shoulder joints depend on shoulder muscles to keep them stable. Causes of back pain in the shoulder area usually involve these muscles.

Incorrect posture can cause both neck and shoulder pain.

* Standing with your shoulders slouching, chin jutting forward, can put extra strain on your ligaments and muscles.
* Sitting with your head down for long periods of time as you work at a desk or read can exert similar strain.
* Slumping in your seat is another cause of shoulder and neck pain.
* If you tend to sleep on your stomach, your sleeping posture could be the cause of back pain.

Other Causes of Back Pain

As shown above, causes of back pain are most often linked to strain of back muscles, ligaments, or tendons. There are many conditions other than strain, however, that can cause back pain. Below is a partial list:

* Arthritis - causing joint inflammation

* Herniated disc - irritating nearby nerves

* Spinal stenosis - spinal canal narrowing that compresses nerves

* Spondylolisthesis - slipped vertebrae resulting in pinched nerves

* Vertebral fractures - resulting from trauma or osteoporosis

* Degenerative disc disease - aging process that breaks down discs

Whatever the causes of back pain, the most effective prevention is to overcome incorrect posture and incorrect lifting techniques.

Lazer Surgery for the Spine! What You Need to Know


"Laser" is an acronym for Light Amplification by Stimulated Emission of Radiation, a unique type of light energy produced by man. Laser light is different than visible light in its characteristics of collimation (all emitted light is almost perfectly parallel), coherent (light waves are all in phase in both time and space) and monochromatic (one specific wave length).

The principle of lasing phenomena is the ability of photons to stimulate the emission of other photons, each having the same wave length and direction of travel. When a photon passes close to an excited electron, the electron will become stimulated to emit a photon that is identical in both wave length, phase and spatial coherence to the impinging photon.

The laser that's often employed in Lazer Surgery for the Spine is a 2.1 Holmium YAG Laser which remains today the most effective laser in orthopaedic surgery and specifically in arthroscopic and endoscopic surgery.

Here are some of the conditions that Lazer Surgery for the Spine may help with:

Spinal fusion - the surgical joining of two more vertebrae together, usually with bone grafts and hardware. The resulting fused vertebrae are stable but immobile. Spinal fusion is used as a treatment for spondylolisthesis, scoliosis, herniated discs, and spinal stenosis.

Spinal stenosis - the narrowing of the spinal canal (through which the spinal cord runs), often by the overgrowth of bone caused by osteoarthritis of the spine.

Herniated Disc With age, the center of vertebral discs may start to lose water content, making the disc less effective as a cushion, causing displacement of the disc's center (herniated or ruptured disc) through a crack in the outer layer. Most disc herniations occur in the bottom two discs of the lumbar spine, at and just below the waist. A herniated disc can press on a nerve root in the spine and may cause back pain or pain, numbness, tingling or weakness of the leg called "sciatica." Also known as a slipped or ruptured disc, or herniated nucleus pulposus (HNP). Can also occur in the neck and rarely in the thoracic portion of the spine.

Spinal Stenosis The narrowing of the spinal canal (through which the spinal cord runs), often by the overgrowth of bone caused by osteoarthritis of the spine

Degenerative Disc Disease A catch-all term to describe degenerative changes in the disc(s) due to aging or wear and tear.

Failed Open Back Surgery Self Explanatory

Radiculopathy Impairment of a nerve root, usually causing radiating pain, numbness, tingling or muscle weakness that correspond to a specific nerve root.

Sciatica Pain, numbness, tingling in the distribution of the sciatic nerve, which travels from deep in the buttock down to the foot.

Spondylosis A fracture (crack) in the "pars interarticularis" where the vertebral body and the posterior elements, protecting the nerves are joined, In about 5 percent of the adult population, there is a developmental crack in one of the vertebrae, usually at the point at which the lower (lumbar) part of the spine (L5) joins the tailbone (sacrum).

Spondylolisthesis Degenerative When a vertebra slips forward over the vertebra below it as a result of arthritis of the small joints of the spine and degeneration of the discs.

Spondylolisthesis Isthmic When a vertebra with a crack in the "pars interarticularis" where the vertebral body and the posterior elements, protecting the nerves are joined, slips forward over the vertebra below it. Spondylolisthesis can be graded as I, II, III or IV based on how far forward the vertebra has slipped.

Lazer Surgery for the Spine has shown to be effective in treating pain from sciatica, spinal fusion, headache, pinched nerve, back pain, neck pain, degenerative disc disease, sciatica, spinal instability, lumbar arthritis, degenerative disc disease, spondylosis, spondylolisthesis, failed back surgery syndrome, chronic back pain, radiculopathy and many other conditions that can cause severe back pain.