PeaPure – Palmitoylethanolamide for Nerve Pain or Migraine

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PeaPure is a glial modulator. It is available in Italy and the Netherlands as a food supplement and has been studied in multicenter clinical trials in Europe for several years. It is well tolerated with no side effects and is very helpful for neuropathic pain, headache, and osteoarthritis. It is anti-inflammatory and neuroprotective.

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Because it inhibits astrocyte activation and the over-expression of pro-inflammatory molecules and signals, it is being investigated in Alzheimer’s Disease.

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The mechanism of action of PEA was discovered in 1993 by Nobel laureate Rita Levi-Montalcini in her work on nerve growth factors. She found it is involved in metabolism of mast cells and published a series of papers on its self-healing effect of the body in response to inflammation and pain. Two recent publications from Jan M Keppel Hesselink, MD, PhD, and his colleagues at the Institute for Neuropathic Pain, Amsterdam, The Netherlands, describe case reports, one of which is the case of a woman with CRPS.

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The purpose of this post is to clarify dosing of PeaPure and how to take it for a sudden flare of pain. My apologies for failing to recall the source of these instructions which I believe was from the manufacturer and from here and here. The latter includes an excellent review of its mechanism.

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Description of PeaPure® 400 mg capsules
PeaPure® is a food supplement based on a natural and fatty-acid like compound.
The substance palmitoylethanolamide (PEA) is a physiologically active molecule that the body produces naturally.
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What the user should know prior to ingestion:
•    There are no known significant side effects.
•    PeaPure® can be taken simultaneously with other medicine. In case of doubt, it is recommended to first consult your doctor or a pharmacist.
•    Use during pregnancy is NOT recommended.
•    PeaPure® does not contain sugar, yeast, allergens, sorbitol, magnesium stearate, povidone or other ingredients.

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Dosage and administration
Administration: During or after the meal, swallow 1 capsule together with water, or sprinkle the content of the capsule on your food.

Dosage:  may use 30 mg/kg
First 2 months: 3 times 1 capsule daily
Next 2 months: In case of a positive result, 2 times 1 capsule daily
After 4 months, you can consider the following:
•    Continue taking 2 times 1 capsule daily.
•    Reduce the ingestion to 1 times 1 capsule daily.
•    Stop the ingestion.

In case of regression, it is recommended to increase the dosage to 2 or 3 times 1 capsule daily.
It is possible to continue taking PeaPure® in the correct dosage.
Do not exceed the recommended daily dosage.

Daily dosage Recommended Daily Dosage in %
palmitoylethanolamide 1200 mg (= 3 capsules)     —-


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PeaPure can be easily swallowed, or for patients with severe swallowing problems, the capsules can be openend and PEA can be sprinkeled over a meal or mixed with yoghurt or so.

PeaPure can also be taken easily under the tongue, by opening the special designed capsule and poring the powder on a spoon and getting it under the tongue. (Especially of use in patients suffering great pain and for instance in Lou Gehring’s disease). Or the capsule can easily be swallowed.

Dose recommendations of PeaPure

Dose recommendation: start with 1200 mg daily in 2 to 3 doses (e.g. 2 capsules after breakfast and 1 capsule after diner). In case of severe pain, migraine or for special indications such as Lou Gehrings disease it is recommended to open the capsule and put the PEA under the tongue for longer periodes of time. The PEA dissolves in the mouth and is absorbed via the oral mucosa to enter directly into the body, not being partly digested in the gut. This gives a jumpstart which might be desirable, but is not always necessary.

PEA is the body’s own modulator, and not a painkiller such as NSAIDs and morphine. It does mostly need some weeks to slowly bring the body in balance on a number of biological levels. As PEA has a number of modulating effects, both on the short term as well as slowly increasing, there are patients experiencing quick pain relief within some days. There are also patients who need more time (especially in chronic pain situations). Therefore the recommendation is to test the efficacy of PEA during two months in cases of chronic pain before deciding on its efficacy.

If pain decreases more than 30% one can reduce the dose of PeaPure to 2 times 400 mg. If pain increases under PeaPure treatment, as some chronic pain syndromes sometimes waxes and wanes (given the weather, given excercise, food, etc) it is recommended to increase the dose to 800 mg twice daily.

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Warnings

•    It is not allowed to use food supplements as replacement for a varied diet.
•    Keep this food supplement dry and at room temperature. Keep out of reach of small children.

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Content and ingredients
30 vegetarian capsules
Each capsule contains 400 mg palmitoylethanolamide (PEA).
Ingredients: palmitoylethanolamide, hydroxypropyl methylcellulose (capsule)

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The material on this site is for informational purposes only, and is not a substitute for

medical advice, diagnosis or treatment provided by a qualified health care provider.

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Please understand that it is not legal for me to give medical advice without a consultation.

If you wish an appointment, please telephone my office or contact your local psychiatrist.

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For My Home Page, click here:  Welcome to my Weblog on Pain Management!

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Glia a Promising Target for Neuropathic Pain – Ketamine Acting on Glia More Than on Neuronal NMDA Receptors?

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 Three important new articles from March, August and November 2011, show ketamine acts on glia.

Emphasis within articles is mine.

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Microglia: a promising target for treating neuropathic and postoperative pain, and morphine tolerance.

Abstract

Management of chronic pain, such as nerve-injury-induced neuropathic pain associated with diabetic neuropathy, viral infection, and cancer, is a real clinical challenge. Major surgeries, such as breast and thoracic surgery, leg amputation, and coronary artery bypass surgery, also lead to chronic pain in 10-50% of individuals after acute postoperative pain, partly due to surgery-induced nerve injury. Current treatments mainly focus on blocking neurotransmission in the pain pathway and have only resulted in limited success. Ironically, chronic opioid exposure might lead to paradoxical pain. Development of effective therapeutic strategies requires a better understanding of cellular mechanisms underlying the pathogenesis of neuropathic pain. Progress in pain research points to an important role of microglial cells in the development of chronic pain. Spinal cord microglia are strongly activated after nerve injury, surgical incision, and chronic opioid exposure. Increasing evidence suggests that, under all these conditions, the activated microglia not only exhibit increased expression of microglial markers CD 11 b and Iba 1, but also display elevated phosphorylation of p38 mitogen-activated protein kinase. Inhibition of spinal cord p38 has been shown to attenuate neuropathic and postoperative pain, as well as morphine-induced antinociceptive tolerance. Activation of p38 in spinal microglia results in increased synthesis and release of the neurotrophin brain-derived neurotrophic factor and the proinflammatory cytokines interleukin-1β, interleukin-6, and tumor necrosis factor-α. These microglia-released mediators can powerfully modulate spinal cord synaptic transmission, leading to increased excitability of dorsal horn neurons, that is, central sensitization, partly via suppressing inhibitory synaptic transmission. Here, we review studies that support the pronociceptive role of microglia in conditions of neuropathic and postoperative pain and opioid tolerance. We conclude that targeting microglial signaling might lead to more effective treatments for devastating chronic pain after diabetic neuropathy, viral infection, cancer, and major surgeries, partly via improving the analgesic efficacy of opioids.

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Ketamine depresses toll-like receptor 3 signaling in spinal microglia in a rat model of neuropathic pain.

Abstract

Reports suggest that microglia play a key role in spinal nerve ligation (SNL)-induced neuropathic pain, and toll-like receptor 3 (TLR3) has a substantial role in the activation of spinal microglia and the development of tactile allodynia after nerve injury. In addition, ketamine application could suppress microglial activation in vitro, and ketamine could inhibit proinflammatory gene expression possibly by suppressing TLR-mediated signal transduction. Therefore, the present study was designed to disclose whether intrathecal ketamine could suppress SNL-induced spinal microglial activation and exert some antiallodynic effects on neuropathic pain by suppressing TLR3 activation. Behavioral results showed that intrathecal ketamine attenuated SNL-induced mechanical allodynia, as well as spinal microglial activation, in a dose-dependent manner. Furthermore, Western blot analysis displayed that ketamine application downregulated SNL-induced phosphorylated-p38 (p-p38) expression, which was specifically expressed in spinal microglia but not in astrocytes or neurons. Besides, ketamine could reverse TLR3 agonist (polyinosine-polycytidylic acid)-induced mechanical allodynia and spinal microglia activation. It was concluded that intrathecal ketamine depresses TLR3-induced spinal microglial p-p38 mitogen-activated protein kinase pathway activation after SNL, probably contributing to the antiallodynic effect of ketamine on SNL-induced neuropathic pain.

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Microglial Ca(2+)-activated K(+) channels are possible molecular targets for the analgesic effects of S-ketamine on neuropathic pain.

Abstract

Ketamine is an important analgesia clinically used for both acute and chronic pain. The acute analgesic effects of ketamine are generally believed to be mediated by the inhibition of NMDA receptors in nociceptive neurons. However, the inhibition of neuronal NMDA receptors cannot fully account for its potent analgesic effects on chronic pain because there is a significant discrepancy between their potencies. The possible effect of ketamine on spinal microglia was first examined because hyperactivation of spinal microglia after nerve injury contributes to neuropathic pain. Optically pure S-ketamine preferentially suppressed the nerve injury-induced development of tactile allodynia and hyperactivation of spinal microglia. S-Ketamine also preferentially inhibited hyperactivation of cultured microglia after treatment with lipopolysaccharide, ATP, or lysophosphatidic acid. We next focused our attention on the Ca(2+)-activated K(+) (K(Ca)) currents in microglia, which are known to induce their hyperactivation and migration. S-Ketamine suppressed both nerve injury-induced large-conductance K(Ca) (BK) currents and 1,3-dihydro-1-[2-hydroxy-5-(trifluoromethyl)phenyl]-5-(trifluoromethyl)-2H-benzimidazol-2-one (NS1619)-induced BK currents in spinal microglia. Furthermore, the intrathecal administration of charybdotoxin, a K(Ca) channel blocker, significantly inhibited the nerve injury-induced tactile allodynia, the expression of P2X(4) receptors, and the synthesis of brain-derived neurotrophic factor in spinal microglia. In contrast, NS1619-induced tactile allodynia was completely inhibited by S-ketamine. These observations strongly suggest that S-ketamine preferentially suppresses the nerve injury-induced hyperactivation and migration of spinal microglia through the blockade of BK channels. Therefore, the preferential inhibition of microglial BK channels in addition to neuronal NMDA receptors may account for the preferential and potent analgesic effects of S-ketamine on neuropathic pain.

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The material on this site is for informational purposes only,

The material on this site is for informational purposes only,

and is not a substitute for medical advice, diagnosis or treatment provided by a qualified health care provider.


For My Home Page, click here: 

Welcome to my Weblog on Pain Management!

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Gliopathic Pain — when Neuropathic Pain Treatment Fails

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Coming soon, though these stand on their own:

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Modulation of microglia can attenuate neuropathic pain symptoms and enhance morphine effectiveness.

Abstract

Microglia play a crucial role in the maintenance of neuronal homeostasis in the central nervous system, and microglia production of immune factors is believed to play an important role in nociceptive transmission. There is increasing evidence that uncontrolled activation of microglial cells under neuropathic pain conditions induces the release of proinflammatory cytokines (interleukin – IL-1beta, IL-6, tumor necrosis factor – TNF-alpha), complement components (C1q, C3, C4, C5, C5a) and other substances that facilitate pain transmission. Additionally, microglia activation can lead to altered activity of opioid systems and neuropathic pain is characterized by resistance to morphine. Pharmacological attenuation of glial activation represents a novel approach for controlling neuropathic pain. It has been found that propentofylline, pentoxifylline, fluorocitrate and minocycline decrease microglial activation and inhibit proinflammatory cytokines, thereby suppressing the development of neuropathic pain. The results of many studies support the idea that modulation of glial and neuroimmune activation may be a potential therapeutic mechanism for enhancement of morphine analgesia. Researchers and pharmacological companies have embarked on a new approach to the control of microglial activity, which is to search for substances that activate anti-inflammatory cytokines like IL-10. IL-10 is very interesting since it reduces allodynia and hyperalgesia by suppressing the production and activity of TNF-alpha, IL-1beta and IL-6. Some glial inhibitors, which are safe and clinically well tolerated, are potential useful agents for treatment of neuropathic pain and for the prevention of tolerance to morphine analgesia. Targeting glial activation is a clinically promising method for treatment of neuropathic pain.

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Microglia: a promising target for treating neuropathic and postoperative pain, and morphine tolerance.

Source

Department of Anesthesiology, Brigham and Women’s Hospital and Harvard Medical School, Boston, MA, USA.

Abstract

Management of chronic pain, such as nerve-injury-induced neuropathic pain associated with diabetic neuropathy, viral infection, and cancer, is a real clinical challenge. Major surgeries, such as breast and thoracic surgery, leg amputation, and coronary artery bypass surgery, also lead to chronic pain in 10-50% of individuals after acute postoperative pain, partly due to surgery-induced nerve injury. Current treatments mainly focus on blocking neurotransmission in the pain pathway and have only resulted in limited success. Ironically, chronic opioid exposure might lead to paradoxical pain. Development of effective therapeutic strategies requires a better understanding of cellular mechanisms underlying the pathogenesis of neuropathic pain. Progress in pain research points to an important role of microglial cells in the development of chronic pain. Spinal cord microglia are strongly activated after nerve injury, surgical incision, and chronic opioid exposure. Increasing evidence suggests that, under all these conditions, the activated microglia not only exhibit increased expression of microglial markers CD 11 b and Iba 1, but also display elevated phosphorylation of p38 mitogen-activated protein kinase. Inhibition of spinal cord p38 has been shown to attenuate neuropathic and postoperative pain, as well as morphine-induced antinociceptive tolerance. Activation of p38 in spinal microglia results in increased synthesis and release of the neurotrophin brain-derived neurotrophic factor and the proinflammatory cytokines interleukin-1β, interleukin-6, and tumor necrosis factor-α. These microglia-released mediators can powerfully modulate spinal cord synaptic transmission, leading to increased excitability of dorsal horn neurons, that is, central sensitization, partly via suppressing inhibitory synaptic transmission. Here, we review studies that support the pronociceptive role of microglia in conditions of neuropathic and postoperative pain and opioid tolerance. We conclude that targeting microglial signaling might lead to more effective treatments for devastating chronic pain after diabetic neuropathy, viral infection, cancer, and major surgeries, partly via improving the analgesic efficacy of opioids.

 

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The material on this site is for informational purposes only, and is not a substitute for medical advice,
diagnosis or treatment provided by a qualified health care provider.
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For My Home Page, click here:  
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Cognitive Behavioral Therapy – Being Positive

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I don’t know how the Great Recession may be affecting your mood, but for those with chronic pain, it is often difficult to nurture and maintain a positive attitude.  At times when we need the most help, we may be most reluctant to appreciate the benefits of Cognitive Behavioral Therapy, but that’s how we get help to reorder our thoughts in positive ways that are healing.

A Randomized Trial of a Cognitive-Bahavior Intervention

Compared to information giving and educational approaches, the risk for developing a long-term disability was lowered nine-fold for the cognitive-behavior intervention group. The cognitive-behavior group also demonstrated a significant decrease in physician and physical therapy use as compared with two groups receiving information, in which such use increased. These findings underscore the significance of early interventions that specifically aim to prevent chronic problems.

More recent research is reported by London’s syndication, The Independent, that tells us how much our attitude is harming ourselves.  Don’t forget, it harms everyone you love and constricts their lives too.  But the right frame of mind can lower your pain and other health risks.

PAIN

People showing dispositional optimism may be better able to cope with pain and need less medication. A study at Michigan State University on cancer patients shows that those who were more optimistic tended to report less severe pain. A study at the University of Alabama showed that patients who were optimistic used less medication for pain relief. “More optimistic adolescents are better able to match their medication use to their pain severity. Future research should examine how other psycho-social factors might influence pain medication use in adolescents and adults, and clinicians should take into account psychosocial factors when working with pain populations.”

CANCER

Women who are happy and optimistic may have a lower risk of developing breast cancer. The research also show that adverse life events, such as loss of a loved one or divorce , can increase the risk. Results from the study at Ben Gurion University in Israel show that exposure to more than one adverse life event was associated with a 60 per cent increased risk of disease, while happy and optimistic women were 25 per cent less likely to have the disease. “A general feeling of happiness and optimism seems to play a protective role,” say the researchers. “The relationship between happiness and health should be examined in future studies and possible relevant preventive initiatives should be developed,” say the researchers.

MORTALITY

A review of research into the association between positive wellbeing and mortality shows a signifciant link. The University College London analysis of 35 studies showed that positive psychological wellbeing was associated with an 18 per cent reduced mortality in healthy people and a 24 per cent lower risk in sick people. “Positive feelings – emotional well-being, positive mood, joy, happiness, vigour, energy – and life satisfaction, hopefulness, optimism, sense of humour, were associated with reduced mortality. Results suggest that positive psychological wellbeing has a favourable effect on survival in both healthy and diseased populations.

HEART DISEASE

The positive-minded have a 55 per cent lower risk of dying from heart disease, according to the results of a study which followed 500 men aged 54 to 84 for 15 years. “Our results demonstrate a strong and consistent association between dispositional optimism and lower risk of cardiovascular mortality,” says the researchers from The Netherlands Institute of Mental Health, Delft. Just how low optimism may lead to cardiovascular death, is, say the authors, an intriguing, but unanswered question. One possible mechanism, they say, is that optimism is related to better coping behaviour. Another study at the University of Pittsburgh, and based on 200 women diagnosed with thickening of the arteries, showed that over a 15-year period, the disease progressed more slowly in those women classed as optimists. Other research has shown that optimists have a lower risk of rehospitalisation after coronary artery bypass graft surgery.

The article also covers the field of research as it applies to blood pressure, longevity, infections, even the common cold……..

Practice makes perfect.  Take time out to give yourself some love.  Doctors too.

And read Diana’s blog to see how the addition of 3 kittens have added so much to her family’s mood.  Even if you can’t have a pet, you can still enjoy a friend’s.

For My Home Page, click here:  Welcome to my Weblog on Pain Management!

Vitamin D – A Steroid Hormone, Anti-inflammatory

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The Sunshine Vitamin Controversy

What should normal values  be for calcium homeostasis?

My attention was drawn to Vitamin D several years ago when a review appeared in the journal Neurology, published by the Academy of Neurology, that linked low levels of Vitamin D to Multiple Sclerosis.  The article was unusual for its length and the breadth of research cited over several decades.  More recently, a Johns Hopkins article published “the most conclusive evidence to date” that Low Vitamin D Levels Pose Large Threat to Health.

New publications on Vitamin D seem to appear every week with the focus on levels of 25-hydroxyvitamin D, also written as 25(OH)D. Its half life in serum is ~ 10 days to 3 weeks.

The biologically active form 1,25-dihydroxyvitamin D, written as 1,25(OH)D²,  is made in the kidneys and has a much shorter serum half-life of ~ 4-6 hours, thus making it less useful as a serum marker for measuring.

Sources & Metabolism: Vitamin D is a fat soluble vitamin that’s absorbed in the small intestine from  foods such as egg yolks, fatty fish, fish liver oils, fortified milk, margarine, and cereals.  Bile salts are required for absorption.  Sunlight stimulates the skin to synthesize vitamin D, but exposure of hands and face as little as 15 minutes may not be sufficient and it is not as effective for everyone.  It won’t work in winter months, it won’t work for the aged, for those who have pigmented skin, and it won’t work for those who cover their skin.

Vitamin D Metabolism - click to enlarge

Vitamin D Metabolism

The Controversy –  How Do We Determine Normal Values?

Surprisingly, in a well designed multicenter study of healthy young Hawaiians in their 20′s who were exposed to at least 29 hours of sun per week, 51% were found to have vitamin D deficiency using the usual cut off of 30 ng/ml for normal.  This study from 2007 found the mean concentration of 31.6 ng/ml, and the highest of 62 ng/ml.  It raises the question whether

“it seems prudent to use this value [60 ng/ml] as an upper limit when prescribing vitamin D supplementation,”

rather than the generally published normal range of 30 to 80 ng/ml or even 100 ng/ml quoted in some labs.  This study is important in discussing the controversial question of what normal values should be for calcium homeostasis and reviews several possible explanations for inadequate production of D3 including genetic differences.

They note the highest reported values in “Nebraska outdoor workers… were between 81 and 84 ng/ml” but the assay system differed compared to theirs and results in a higher value.   Reviewing this study that was published in the Journal of Clinical Endocrinology & Metabolism has allowed me just now to readjust my own patient practice.

Laboratory Testing:  results can differ from one laboratory to another.  My hospital sends specimens to ARUP for testing, whereas Quest has acknowledged errors in laboratory testing and problems with standardization as reported by the New York Times here.

Function:  It is important for absorption of calcium and phosphorous from the small intestine, for bone health, osteoporosis, risk of falls, certain cancers(colon, breast, prostate), and possibly 6 to 7 years of longevity.  Deficiency of vitamin D is associated with suboptimal health and possibly increased pain; it is linked to infections, gum disease, hypertension, diabetes, coronary disease, neurological diseases such as Multiple Sclerosis, Parkinson’s Disease, dementia and Alzheimer’s Disease though it may not be causal. Its receptor is found all over the body including the brain.

I recommend this review by one of the best web resources at Memorial Sloan Kettering Cancer Center Herbs & Botanicals.

They quote a reference showing it reduces postmenopausal weight gain and “In adults with impaired fasting blood glucose, giving calcium and vitamin D reduced increases in plasma glucose and insulin resistance….”

It is the only vitamin that is a steroid hormone, and my interest increased on learning that it functions as an anti-inflammatory.  But as I tested blood levels for 25(OH) vitamin D and parathyroid hormone (PTH), I discovered more than 90% of my patients had vitamin D deficiency and a few had hyperparathyroidism.  There are four parathyroid glands next to the thyroid, and for some reason doctors have rarely tested their hormone levels.

***Persons with hyperparathyroidism should NOT take calcium or vitamin D.

It may lead to kidney stones and bone pain:  stones, bones and groans.***

Evidence for Optimizing Vitamin D Concentrations

On the other hand, if vitamin D is low, there is some evidence that replacement with vitamin D3 so that blood levels are in the high normal range, may help pain.  That is, it may raise the pain threshold and possibly have other benefits for health and longevity. It is desirable to avoid toxic levels of D as it causes hypercalcemia with depression, drowsiness, weakness, headache, polydipsia,  bone loss, and metastatic calcifications of many organs, soft tissues and blood vessels.  The generally quoted range of normal for 25(OH) vitamin D is 30 to 80, that varies with the lab.

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Doesn’t that photo of the Great Western Divide make you want to get outside into the sun?

Estimation of optimal serum concentrations of 25-hydroxyvitamin D for multiple health outcomes was reviewed by Heike Bischoff-Ferrari et al, in 2006,  though it has been superseded by much additional work since then.

To quote from their article:

This review summarizes the evidence for optimal serum  25(OH)D concentrations. The endpoint selection for this review was based the strongest evidence to date—ie, that from RCTs [randomized controlled trials], consistent evidence from prospective and cross-sectional epidemiologic studies, and strong mechanistic evidence or dose response relations.  BMD [bone mineral density], fracture prevention, lower-extremity function, falls, oral health, and colorectal cancer met these criteria. Weaker evidence exists of a beneficial effect of vitamin D on other diseases, including multiple sclerosis (15), tuberculosis (16), insulin resistance (17, 18), cancers other than colorectal (19 –22), osteoarthritis (23, 24), and hypertension (25–27), but these diseases are not considered here.

They did not review pain studies.  I would add that “weaker” evidence merely means that it must be confirmed by more studies, not that it excludes those conditions.  There is an epidemic of vitamin D deficiency in the country, and the incidence is very high in pain clinics as reported in several studies.

A new multi-center epidemiology study  ”Demographic Differences and Trends of Vitamin D Insufficiency in the US Population, 1988-2004“  by Ginde, et al, in 2006,  ”demonstrate a marked decrease in serum 25(OH)D levels from the 1988-1994 to the 2001-2004 NHANES data collections.”  And like others before them, they point out:

“Current recommendations for vitamin D supplementation are inadequate to address the growing epidemic of vitamin D insufficiency.”

Summary:

Make sure your doctor checks both your 25(OH)Vitamin D and parathyroid hormone level (PTH) – not thyroid – to determine if you have hyperparathyroidism or if you have normal or low vitamin D.  That will determine if you need replacement or if you should stop using calcium and D as it will cause kidney stones and calcium deposits on your bones leading to pain.

If vitamin D levels are low it may result in increased physical pain and may cause or aggravate many medical conditions.

If PTH levels are high indicating hyperparathyroidism it will cause new painful conditions.

Intake does vary with the patient, the season, the age, but the recommended daily allowance may perhaps be double what it is now.  It is unclear when the federal government will adjust that dosage.   As always, your physician’s recommendation will be based upon blood levels of 25(OH)D and PTH.

Do not make changes in your dosage without careful evaluation.

Could this possibly be one of the most important areas of research this century?

The material on this site is for informational purposes only, and

is not a substitute for medical advice, diagnosis or treatment provided by a qualified health care provider.

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Welcome to my Weblog on Pain Management! Thanks for stopping by.

NancySajbenMDIt is very exciting to have this resource as a way to structure the many research publications and ideas I come across in Pain Management, Neurology, Integrative Medicine and, yes, politics of medicine. I only wish I had had this tool decades ago so that I didn’t have to recreate the ones I’ve already reviewed and forgotten in the last 40 years.

Chronic pain is often much more difficult to treat than cancer pain. It is tragic that < 1% of NIH budget goes for pain research, though 10 to 20% of the population in the US suffers from chronic pain, an estimated 60 million Americans, and the conditions are more prevalent among the elderly. Persons of all ages that I see tend to be more debilitated, often with anywhere from 3 to 14 different identifiable pain syndromes.

Many, including physicians, mistake pain as a symptom, failing to understand the reorganization that has occurred in the central nervous system due to neuro-plasticity; and they overlook the associated co-morbidity causing insomnia, weight gain due to medication or inactivity, depression, anxiety, spiritual and financial burdens. The lives of families and friends are diminished along with the person who has pain.

In the future, as time permits, I’ll be adding publications and articles to the site and occasionally posting with a frequency yet to be determined, hopefully twice a month.

Goals:

  • This website is dedicated to providing educational resources to patients and healthcare professionals regarding the current understanding of pain medicine, an interdisciplinary field
  • To discuss evidence-based information to improve the lives of patients who choose to use these therapies under the direction of informed physicians
  • To distinguish between harmful treatments, beneficial treatments, and treatments that can be safely integrated with conventional treatment
  • To encourage communication between patients, families and providers
  • To educate both patients and health care providers who need a more comprehensive knowledge base with current and accurate information
  • To promote ongoing professional growth through networking in a setting where treatments can be examined together to enhance lives

Please bear in mind, no information in this blog is intended to diagnose or treat any condition.

The opinions expressed here are my own, and are subject to change as new research becomes available.

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