Complete diabetes care now that we have TACT.
Diabetes is a growing epidemic in the US. According to the National Diabetes Statistics report for 2014, 21 million people in the US have been diagnosed with type 1 or type 2 diabetes. It is estimated an additional 8.1 million people are undiagnosed. The American Diabetic Association documented 86 million prediabetes diagnosis cases in 2012. Treatment and management of this disease is costly; the estimated annual cost of diabetes per year in the US is $245 billion.
More alarming than diagnosis and cost is the impact that diabetes has on our overall health and well-being. Diabetes was listed as the 7th leading cause of death in the US in 2010. When diabetes is controlled, we reduce the risk of coexisting diseases. Unfortunately, many patients remain with an elevated hemoglobin A1C. Uncontrolled diabetes leads to multiple micro-and macrovascular complications. Comorbidities secondary to diabetes include hypertension, hyperlipidemia, coronary artery disease, cerebral vascular accidents, chronic kidney disease, amputation, retinopathy, and neuropathy. (1)
Conventional Approach to the Treatment of Diabetes
Type 2 diabetes mellitus (T2DM) is clearly linked to obesity. As the obesity rates climb, so does the diagnosis. Eighty to ninety percent of patients diagnosed with type 2 diabetes are classified as obese. The International Diabetes Foundation was quoted, "Diabetes and obesity are the biggest public health challenges of the 21st century." The link is clear; obesity drives insulin resistance and an inflammatory response. Prolonged insulin resistance puts an extreme amount of stress on the pancreas. When resistance is accompanied by dysfunction of the pancreatic islet beta cells, that is what ultimately leads to the disease. (2)
A dietary goal should be to minimize refined sugars and starches. Modern carbohydrate staples, such as potatoes, breads, and cereals, have a high glycemic index (GI) and a very strong link to chronic disease. (3) Foods low on the GI scale such as sweet potatoes, winter squash, and beans help to stabilize blood glucose levels. This can be achieved with whole structured foods and lower GI. Clinical trials support low GI diets with greater fat content as more effective than low-fat diets at preventing complications associated with cardiovascular disease. Often a low fat diet contains the highest GI content, which leads to increased insulin resistance. Low GI diets improved whole body insulin sensitivity throughout the trials with no increase in FDF cholesterol. (3) Whole rice and seeds decrease circulating levels of glucose, insulin, FDF cholesterol, and fructosamine, while refined sugar and high-fructose corn syrup lead to increased risk for T2DM. Farge amounts of fructose result in insulin resistance and could accelerate the development of T2DM and associated complications. Avoiding processed foods is an important step in preventing and managing diabetes. (4)
Many options are available to treat diabetes. As discussed above, lifestyle modifications are the initial target for obesity. Nutritional planning, weight loss, and diabetic education are a top priority. However, despite efforts of diet and exercise, many patients will require additional therapies. There are multiple oral medications available. Metformin is the initial medication of choice if liver and kidney functions are stable. However, if the hemoglobin A1C remains elevated after 3 months of therapy, an additional agent may be selected. Treatment of diabetes has greatly changed in the last 10 years. Use of sulfonylureas, meglitinides, and alpha-glucosidase inhibitors are less common, as innovative medications are integrating to the market.
Emerging drug classifications include thiazolidinediones, DPPIV inhibitors, GLP agonists, and SGLT2 inhibitors. If insulin resistance remains high and oral medications and injectable noninsulin medications are not effective in maintaining glycemic control, insulin may be added. Likewise, if chronic medical conditions arise and prevent the use of certain medications, a basal-bolus regimen of insulin may be more appropriate.
Goals of Treatment
As previously mentioned, treatment goals are targeted by the hemoglobin A1C. The A1C is a 3-month average of the patient's blood sugar. An A1C less than 5.7% is normal, prediabetic range is 5.7-6.4%, and diabetes is diagnosed if the A1C is greater than 6.5%. Once a patient is diagnosed with diabetes, The American Diabetes Association recommends an A1C goal less than 7%. However, many randomized trials that examined the effects of glycemic control did not include the frail elderly. (5)
Newer data points to higher health threats in the elderly population with tight glycemic control. The most common risk is severe hypoglycemia. Hypoglycemia can lead to increased falls, injury, trauma, and hospitalizations. (6) Also, elderly patients are more likely to experience an adverse effect from their medications. The American Geriatric Society recommends the targeted A1C to be 8% in the elderly. (7) However, the A1C target is controversial among various organizations. Ultimately, goals should have an individual approach and target.
Complementary Treatment Options and Lifestyle Measures
Complementary, alternative, integrative, or comprehensive, whatever term you choose, these additional approaches to medicine offer many options for the prevention and treatment of T2DM. The California Institute of Integral Studies and Integrative Medicine presented a paradigm shift in our health-care system at the International Congress for Clinicians in Complementary and Integrative Medicine in 2013.8 Collaborative practice and interaction between disciplines will provide valuable insight toward a new health-care model. It is estimated that as much as 40% of adults use complementary and alternative medicine (CAM), with up to 34% of those patients having a chronic disease. These figures are meaningless when disclosure of CAM use is often withheld due to potential conflict with other providers. (9)
Personal responsibility is essential for prevention and management of diabetes. Awareness of recommended caloric intake and ideal body weight prevent the buildup of excess body fat, which can lead to cellular insulin resistance. Maintaining ideal body weight and modifying the diet to include important nutrients, limit less beneficial ingredients, and eliminate harmful options will lead to improved glycemic control. (4) Organic pollutants also accumulate in adipose tissue and carry destructive consequences. Sorbitol accumulation caused by environmental exposure leads to cell death and contributes to diabetic complications. (4) Weight loss and detoxification will improve insulin sensitivity and glucose tolerance. Losing as little as 5% of body fat can lead to marked improvement in glycemic control and a reduction in the incidence of T2DM by up to 50%. (10)
Gaby also identified a gluten-free diet as delaying or preventing the development of T2DM due to the preservation of beta cells. Vegan diets improve glycemic control. Coffee is associated with a decreased risk of developing T2DM. Oolong tea is associated with a mean decrease in plasma glucose concentrations. This could be due to reducing iron absorption, which improves glycemic control. Modest increases in body iron stores have an adverse effect on glucose metabolism. Iron depletion enhances glucose utilization. Phlebotomy treatments have effectively reduced iron concentration to vegetarian levels and caused a 40% increase in insulin sensitivity. (4) Deferoxamine, an iron chelating agent, was used in poorly controlled DM patients with elevated ferritin levels to improve blood glucose and HbA1C levels. (4)
Increased dietary fiber from legumes, carrots, artichokes, peaches, strawberries, and grapefruit can improve glycemic control. Obtaining fiber from food is preferred. If supplementation is necessary, unprocessed wheat bran or apple fiber is recommended. Legumes have an ability to flatten blood sugar response over 4 hours, when eaten at breakfast. (4)
The temperature and manner in which food is cooked plays a role in the development of diabetes. The advanced glycation end products (AGE) remain in food after the cooking process. These products cause modifications in protein structure, which promote inflammation. (4) Less AGE formation results from cooking techniques using water at low temperatures for a longer period of time. An emphasis on boiling, poaching, and stewing over frying, broiling, and roasting can decrease AGE by up to 50%. AGE products play a role in the pathogenesis of insulin resistance and DM complications. (4)
Consuming raw fats such as sesame, coconut, avocado, flaxseed, and olive oil help to reduce HbA1C. Esposito and associates found that a low-carb Mediterranean diet effectively reduced HbA1C, achieved diabetes remission, and delayed the need for medications. (11) Harokopio at the University of Athens found that eating plenty of olive oil, fish, and whole grains was more effective at slowing the progression of T2DM than a low-fat diet. The key factor in the Mediterranean diet is that more than 30% of daily calories are from fat. Olive oil is high in oleic acid and monounsaturated content, providing antioxidant and anti-inflammatory properties. (12)
Mind-body medicine, recognized by the National Center for Complementary Medicine, includes yoga, tai chi, and meditation. These techniques are used to influence the mind-body connection. Movement, breathing, meditation, and chanting can be used to achieve lifestyle changes and stress relief, and allow inner focus. The American Diabetic Association recommends 150 minutes a week of moderate to intense physical activity. These mind-body activities can be considered moderate exercise. (13) No real improvement in glycemic control was seen, but beneficial effects on behavior, mood, stress, and quality of life were identified as positive outcomes. (13) Because chronic stress has been implicated as a risk factor for the development of T2DM and we know that stress-induced inflammatory cytokines could be the cause of this finding, it is easy to see how daily practice in mind-body medicine would have a positive effect. (4) Significant improvements have been documented with daily yoga training. Reduced fasting blood sugar and postprandial levels, better glycemic control, and stable autonomic control are possible with daily yoga training. (9)
Nutritional supplementation has been effective with diabetes management. As mentioned above, various antioxidants are beneficial in preventing complications related to diabetes. The goal is to attempt to include as many fresh, nutrient-dense ingredients as possible and supplement as needed. High levels of oxidative stress have been found in diabetic patients, increasing the need for antioxidant supplementation. Deficient levels of vitamin C in diabetic patients are compounded by an impaired cellular uptake promoting hyperglycemia, which further decreases intracellular vitamin C levels. This localized deficiency contributes to end organ damage. Vitamin C supplements given at 1000 mg daily decreased urinary albumin and slowed the progression of diabetic nephropathy. (4)
Electrolyte disorders have been found to play an important role in the complications of diabetes and are associated with increased mortality and morbidity. Several factors affect the body's ability to utilize nutrients, including nutritional status, absorption, acid-base imbalances, pharmacokinetics, renal disease, and acute illness. This might explain why diabetic patients are found to be low in several important nutrients. Hypomagnesemia is commonly identified in diabetic patients. Magnesium is involved with more than 300 enzymatic reactions and is vital to glucose metabolism and insulin homeostasis. (14) Low serum and plasma levels of magnesium are associated with alterations in nerve, muscle, and cardiac conduction. This contributes to nephropathy and end stage renal disease. Nasri described a significant inverse relationship between serum magnesium and cholesterol levels. (14) Liamis, Liberopoalos, Barkas, and Elisaf reported that an increased dietary intake of magnesium improved metabolic control and reduced the risk of T2DM and dyslipidemia. (15)
The trace element chromium aids glucose with transport into the cell. Chromium deficiency induces hyperglycemia and impaired glucose tolerance. Normal chromium intake is <20 ug/day. Diet recall was used to determine the daily dietary intake of chromium. Low daily intake led to supplementing with 200 ug chromium picolinate or chromium rich yeast, which resulted in improved glucose tolerance. (4) The findings held true in cases of gestational diabetes mellitus. (4) Chromium is found in whole grains, broccoli, and grapes. Normal dietary intake ranges from 20 to 35 ug/day, based on sex and age. (9) Reduced HbA1C and fasting blood sugar levels were achieved with chromium supplementation. A large meta-analysis confirmed these results with a combination therapy of 600 ug chromium picolinide and 2 mg biotin. (16)
Biotin is a B vitamin that enhances chromium absorption and is involved with intracellular metabolism of glucose. Biotin administration of 9 to 16 mg/day improved glucose tolerance and decreased mean fasting blood sugar by 45%. (4) Inositol, D-chiro-inositol, and D-pinitol are found naturally in legumes and citrus fruits. D-pinitol mediates the action of insulin. When given at 20 mg/kg of body weight, a 5% decrease in plasma glucose is seen. (4) Vitamin D deficiency has been associated with increased glucose tolerance and diabetes. Supplementation has shown improvement in endothelial function and glucose tolerance, and an increase in insulin secretion. Doses varied from 800 to 300,000 IU/day. (4)
Alpha-lipoic acid (ALA) is an antioxidant. One of its many benefits includes preventing vitamin C and E deficiency, which are important to prevent and treat T2DM. Supplementing with 600 mg of ALA effectively increased insulin sensitivity, slowed the progression of complications, and prevented renal damage in T2DM patients. ALA is naturally occurring in broccoli, brussel sprouts, peas, potatoes, and yeast. (17)
Bitter melon (Momordica charantia) is a plant native to India and Asia. It has been used medicinally for over 600 years. Evidence has shown positive effects on glucose levels, glucose uptake, glycogen synthesis, and glucose oxidation. (17) Active ingredients include charantin, vicine, and polypeptide-p. Doses ranged from 150 and 2000 mg daily. (18) Fruit, juice, and seed extracts were also used in some studies. (16) Minimal side effects have been reported, although the ingredients are contraindicated in pregnancy. (17) Four specific compounds identified provide the biological evidence for the benefits witnessed. An example of traditional or complementary medicine providing new and effective treatments for T2DM is metformin, which originated from goat's-rue (Calega officinalis). Tan and associates identified bitter melon as one of the most popular botanical treatments for T2DM. (19)
Another promising biologic T2DM treatment is fenugreek (Trigonella foenum-graecum). Commonly used in Traditional Chinese Medicine for glucose control, digestive aid, and relief of menopausal symptoms, fenugreek given at 100 mg improved fasting blood glucose levels. (16) Fifteen grams of ground fenugreek seed power with a meal lowered postprandial glucose levels. (17)
Small trials have yielded promising results for Cymnema sylvestre, or gurmar. The leaves of this plant are used in Ayurvedic medicine to treat T2DM, high cholesterol, and obesity. Significant improvement in fasting blood sugar and HbA1C levels were obtained with doses from 200 mg to 800 mg of an extract daily. (16)
Cinnamon (Cinamonum cassia; gui zhi in Traditional Chinese Medicine) differs from the common spice Cinnamonum verum. C cassia has been used for thousands of years to treat T2DM. The herb activates insulin receptors and increases glycogen synthesis. Five clinical trials evaluated doses from 1 to 6 grams daily and saw decreases in fasting blood glucose levels from 18 to 29 %. (16)
Red Korean ginseng was found to improve glucose tolerance test results, fasting plasma glucose, and blood sugar levels. (20) American ginseng (AG), along with an herb called konjacmannan (KJM), may improve T2DM control and reduce complications. KJM affects the nutrient absorption rate in the small bowel, while AG affects the postabsorption activity; they work in unison to increase sensitivity and enhance secretion. (21) Doses ranged from 100 to 200 mg twice a day. Reductions in fasting plasma glucose and HbA1C were documented. (17)
Berberine is a compound found in goldenseal, Oregon grape, barberry, and other plants. Research has shown it to be as effective as metformin. Doses up to 1000 mg twice daily along with lifestyle modifications led to a 7% reduction in HbA1C. (22) Glucose-and lipid-lowering properties were identified. Future T2DM treatment may have been identified by targeting free fatty acid metabolism. (23)
Publication trends in Iranian endocrinology outlined articles effective in treating T2DM. Of the 44 articles found in PubMed, Scopas, and Google Scholar, a few of the relative topics include Silybum marianum L. Gaertn (silymarin, or milk thistle) as an effective treatment for T2DM. Decreased serum glucose and HbA1C levels were documented in diabetic outpatients using psyllium. (24)
Shenyan Kangfu, based on Traditional Chinese Medicine and Zhao Enjian's work, is a traditional herbal preparation that has been improved and formulated into tablets. These consist of 11 herbal ingredients with a synergistic effect to nourish the kidney and spleen by detoxifying the body. Widely acclaimed, Shenya Kangfu has been used for DM nephropathy, based on the qiyin deficiency syndrome: swelling, fatigue, and weak limbs. Five sites in four major cities in mainland China have been identified. Enrollment is planned for 80 patients in stage III or IV diabetic nephropathy. Enrollment began in November 2012, and 20 participants had been enrolled by March 2013. (25)
As outlined, there are many alternative treatments for T2DM that have been recognized as safe and effective. Small trials, meta-analyses, and anecdotal evidence provide treatment recommendations and document safety concerns, while outlining the need for additional research to improve the care that clinicians provide. The Natural Medicine Comprehensive Database states that many treatments outlined in this article are safe and effective. (17) The US Department of Health and Human Services contends that there is no high-quality evidence of benefit from alternative or supplemental treatments for diabetes. (26) We as health-care providers must combine good judgment and available evidence to offer patients the best options for maintaining optimum health.
Perhaps the most promising advance for the treatment of diabetes since insulin came from the Trial to Assess Chelation Therapy (TACT). (27) This trial emerged from a hearing of the Oversight Committee of Congress and a subsequent call for proposals by the National Institutes of Health. TACT was designed to determine if future cardiac events could be reduced for patients at least 50 years of age who had already suffered at least one heart attack. It was a randomized, double-blind, clinical trial of 1708 patients, who were given more than 55,000 intravenous treatments. Half of the patients were given high-dose vitamins. Thus there were four groups in the study: double-placebo, high-dose vitamins without chelation, chelation with placebo vitamins, and chelation with high-dose vitamins. (28) All of the patients were given evidence-based, conventional care for their coronary artery disease. At the beginning of the 5 years that patients were followed, they were given 30 weekly IVs and then 10 more treatments at monthly intervals.
The benefit of EDTA chelation was shown to be statistically significant. All of the cardiac events (death, reinfarction, stroke, coronary artery revascularization, and hospitalization for severe angina) were less in the EDTA groups than in the groups that received IV placebos. All-cause mortality was also less in the treated patients. Further analysis showed that 37% of the patients had diabetes (322 EDTA and 311 placebo). For those patients with diabetes, there was a 41% reduction in cardiac events, a 52% drop in recurrent Ml, and a 43% reduction in deaths. Those who received both chelation and high-dose vitamins had the best results, but even with chelation and placebo vitamins, the NNT for major cardiac events for diabetic patients over the 5 years was 6.5. For statins in such patients, the NNT is considered to be highly effective at 17. Chelation was shown to be extremely safe when given according to protocol. (27)
A major action of EDTA chelation is its removal of toxic heavy metals, such as lead, cadmium, arsenic, and mercury. Such metals are proved toxic to the vascular tree from their free-radical activity. (29) Carlos Lamar published numerous case studies in the mid-to-late 1960s on chelation's positive effects for diabetes. (30) Paul Cutler found significant improvement in diabetic control with the use of the iron chelator, desferoxamine, in diabetic patients who also had high ferritin levels. (31) EDTA also chelates iron, but not as effectively as desferoxamine. Therapeutic phlebotomies are more effective than either desferoxamine or EDTA. The vast majority of studies on chelation therapy and vascular disease were not randomized clinical trials and were of insufficient power to draw conclusions. Few studies identified patients who had diabetes.
The authors of TACT state that the magnitude of benefit for diabetic patients calls for urgency to replicate their study. (32) TACT-2 has been planned to include only diabetic patients. At the same time, other forms of vascular disease, especially peripheral vascular disease, should be studied. Hancke and Flytlie published a remarkable study demonstrating that 24 out of 27 patients on the waiting list for amputation were able to cancel their surgery and save their legs. (33) Chen Kuan-Hsing and associates demonstrated the effect of chelation therapy on progressive diabetic nephropathy in patients with T2DM and high lead levels. (34)
In the meantime, TACT is clearly the best evidence available showing that chelation therapy might benefit vascular disease. The new guidelines for vascular problems call for the treating physician to have a conversation with his or her patients explaining the risks and potential benefits of all options of therapy. Then it is imperative that the patient decides what mode of therapy sounds best to him or her. This is the new "gold standard." (35) The patient is the decision-maker, not the doctor. Chelation therapy should be discussed in light of the evidence of TACT. If TACT-2 replicates TACT-1, chelation might be suggested for all diabetic patients. With the current status of evidence, chelation therapy should be offered to patients as an option for treatment, especially if they have signs of vascular disease.
Physicians trained in providing intravenous chelation report better overall results than TACT. (36) One reason that clinical practice might be better is that continued monthly maintenance is commonly offered after the basic course of treatment. TACT treated patients intravenously only for the first 20 months, but followed them for 5 years. Another reason could be that TACT did not follow patients with challenge tests for heavy metals or vascular testing to assess progressive improvement. A reaccumulation of toxic metals is not unlikely. Finally, other nutritional therapies are often added by integrative physicians. All of these measures contribute to the best care for each individual patient and would likely improve the overall results.
Chelation therapy has been opposed by conventional doctors for many years. In 1980, the AMA effectively said to the chelation community, "Put up some evidence, or stop doing the therapy." With the help of NIH funding, and cooperation between doctors familiar with the therapy and a group of courageous cardiologists, the evidence has arrived. As clinical scientists who continually advocate evidence-based medicine, physicians are obligated to accept good evidence when it conflicts with their beliefs. (37) The rest of this article puts forth a comprehensive approach to diabetic patients that includes chelation therapy and alternative medicine as therapeutic options for prevention, control of the disease, avoidance of complications, and a longer lifespan.
A Comprehensive Integrative Approach to Diabetes
First, patients must be diagnosed when they have either prediabetes or diabetes. This requires screening tests by their doctors' orders or at health fairs, especially for anyone who is overweight or has a family history of diabetes. Patients with hypoglycemia not infrequently convert to diabetes as they grow older. Fasting blood sugars are a reasonable start, but HbA1C tests are more accurate. Those who are overweight should be encouraged to eat less and better, and exercise more. Obesity is a major cause of gene expression into active diabetes.
As soon as prediabetes or diabetes is detected, a careful reassessment of lifestyle factors should be instituted. The patient and the family must embrace responsibility for controlling the disease. A healthful diet is crucial, with a special emphasis on low carbs, especially if high triglycerides or the metabolic syndrome is present. Regular exercise and an effective way to deal with stress are important. Smoking and excessive environmental pollution are to be avoided as much as possible. Regular monitoring of lipids, HbA1C, kidney function tests such as creatinine with GFR and microalbumen, vitamin D3 levels, annual eye exams, vascular screenings, and careful attention to the feet are all required. The sensitive CRP, homocysteine, and ferritin levels should be checked at least once. A challenge test is the best way to screen for toxic metals.
Nutritional supplements can help control the disease and avoid complications. Vitamin C, biotin, chromium, magnesium, zinc, selenium, B-complex, inositol, and alpha-lipoic acid should all be considered. Several herbal supplements could also be selected if further control of the blood sugar is needed. Good candidates include cinnamon, bitter melon, and berberine. Fenugreek, Cymnema sylvestre, Korean or American ginseng, KJM, and combinations of herbs from India or China also might have therapeutic benefit. Milk thistle might help by its detoxification of harmful chemicals. Psyllium is also good for detox, and aids constipation. Generally, herbals are safer and less likely to cause hypoglycemia than medications.
Medications are next on the list. Oral medicines are discussed above, and insulin is a reasonable choice if needed, whether or not the patient is insulin dependent. Doctors must be careful to avoid overmedication that can lead to HbA1C readings that are too low, hypoglycemic episodes, and severe injuries, especially in the frail elderly. Control of the disease is imperative. Therapeutic goals for the HbAIC should be 6.5 to 7.0 for most patients and 8.0 for unstable elderly patients. Of course, lower levels of HbA1C are desirable if they are achieved without the help of medications.
The most dramatic evidence of treatment success in the last few years came with TACT. Chelation therapy reduced future cardiac events and lowered the death rate for patients with diabetes who had a previous myocardial infarction. The magnitude of benefit was perhaps greater than any intervention other than considerable weight loss or insulin therapy. The probable mechanism has to do with free-radical activity and inflammation caused by toxic metals, which are removed with chelation. Confirmatory research is coming with TACT-2, but cardiologists and endocrinologists should at least describe the remarkable evidence generated by TACT-1 and let patients choose whether they want chelation, either before or after significant vascular disease has developed. After all, most of the complications from diabetes are vascular, which can lead to devastating disabilities and/or premature death.
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419-358-4627; fax 419-358-1855
None of the authors have any conflicts of interest to report.
By L. Terry Chappell, MD; T. Rae Neal, MSN, CNP; and Natallie Paphanchith, MSN, ACNP-BC
L. Terry Chappell, MD, is in private family practice in Bluffton, Ohio. He has served as president of ACAM and ICIM and was an investigator for TACT.
T. Rae Neal, MSN, CNP, is new to primary care. Her background is in cardiac admission and interventional care. She has served as adjunct faculty at Ohio Northern University.
Natallie Paphanchith, MSN, ACNP-BC, is currently working with St. Rita's Professional Services Endocrinology, specializing in diabetes, in Lima, Ohio.
Table 1: Antidiabetes Medications with Their Reductions in A1C and Effects on Weight Reduction Weight Drug Class in A1C (%) Effects (lb) Insulin >2.5 +8.8-11.0 Inhaled insulin 1-2 +2.2-4.4 Sulfonylureas 1.6 +3.5-5.7 Repaglinide and nateglinide 0.8-1.5 +1.54-3.9 Metformin 1.5 -10.1-+0.88 Thiazolidinediones 0.8-1.0 +9.2-10.6 [alpha]-Glucosidase inhibitors 0.5-0.8 +0.0-0.44 DPP-IV inhibitors 0.5-1.0 +0.0-0.88 GLP-1 mimetic 0.6-0.8 -2.8-6.6 Amylin analogs 0.6 -3.1 Source: Hollander P. Anti/diabetes and anti/obesity medications: effects on weight in people with diabetes. Diabetes Spectr. July 2007;20(3):159/165. http:// spectrum.diabetesjournals.Org/content/20/3/159/ T1.expansion?ck=nck. Table 3: Summary of Evidence Supporting Complementary and Alternative Medicine Therapies for Type 2 Diabetes Mellitus (16) Intervention Body Of Evidence Cinnamon FBG level reduction in 2 of 3 trials Chromium HbA1c and FBG level reduction in meta-analysis Vanadium FBG level reduction in uncontrolled trials Fiber HbA1c level reduction (nonsignificant) in 1 of 3 trials FBG level reduction in 6 of 12 trials Green tea FBG level reduction in 1 of 3 trials Other benefits Bitter melon No benefit to HbA1c or FBG levels in 2 small trials Fenugreek FBG level reduction in 1 of 3 trials Other benefits Gymnema HbA1c level reduction in 2 small trials HbA1c: glycosylated hemoglobin A1c; FBG: fasting blood glucose. Source: Nahas, R. Canadian Family Physician. 2009, (55) 591-596. Table 4: Selected Biologically Based Practices Used for Diabetes (13) Name Hypothesized Potential Adverse Effect(s) Effects * on Glucose Metabolism Botanicals Allium sativum * Insulin * Blood thinning (garlic) secretagogue (use caution with anticoagulation or antiplatelet medications) Aloe vera * Insulin * Abdominal pain, secretagogue diarrhea from laxative component, with subsequent electrolyte depletion Coccinia indica * Insulin mimetic * None reported (ivy gourd) Gymnema sylvestre * Insulin * Suppression of (gymnema) secretagogue sweet taste Momordica * Insulin mimetic * Glucose-6- charantia phosphate deficiency (bitter melon) * Decreased hepatic * Contraindicated in glucose production pregnancy Opuntia * Decreased * Diarrhea, nausea, streptacantha carbohydrate abdominal fullness (prickly pear absorption cactus, nopal) Panax ginseng, * Insulin mimetic * May interfere with P. quique effect of folius (ginseng) * Alters hepatic anticoagulation and glucose antiplatelet metabolism medications * Estrogenic effect with breast tenderness, amenorrhea, vaginal bleeding, impotence * Hypertension * Insomnia Trigonella * Insulin * Gas, bloating, foenum secretagogue diarrhea graecum (fenugreek) * Decreased * Contraindicated in carbohydrate pregnancy absorption Supplements Alpha-lipoic * Increased insulin * Monitor thyroid acid sensitivity function in patients with thyroid disease Chromium * Increased insulin * Minimal sensitivity Coenzyme Q10 * No effect on * Few reported in blood glucose clinical trials Magnesium * Insulin * Diarrhea, secretagogue abdominal cramping * Increased insulin * Magnesium toxicity sensitivity in individuals with renal failure Omega-3 * Slight increase * Intake >3 g may fatty acids in blood glucose increase risk of bleeding * Fish meat may have high levels of methylmercury; to be eaten with caution by children and pregnant/ breast-feeding women * May increase LDL; caution in patients with very high LDL Vanadium * Insulin mimetic * Prolonged high doses may cause renal toxicity * All biologically based practices that may reduce blood glucose have the potential for interacting with conventional diabetes medications, producing hypoglycemia. This is not a comprehensive list of potential adverse effects. Source: Birdee, G.S. Clinical Diabetes. 2010, (28) 147-155. Table 5: The Results of TACT Population Endpoint Treatment HR Comparison Overall Primary EDTA v Placebo 0.82 Overall Primary EDTA + oral MVM 0.74 V Placebo + placebo Diabetes Primary EDTA v Placebo 0.59 Diabetes Death EDTA v Placebo 0.57 Diabetes Primary EDTA + oral MVM 0.49 V Placebo + placebo Population 95% CI P 5-yr NNT Overall 0.69-0.99 0.035 18 Overall 0.57-0.95 0.016 12 Diabetes 0.44-0.79 0.0002 6.5 Diabetes 0.36-0.88 0.011 12 Diabetes 0.33-0.75 <0.001 5.5 MVM = multivitamins and multiminerals; NNT = number needed to treat to prevent an event Primary endpoint = death, Ml, stroke, coronary revascularization, hospitalization for angina Source: CardioSource World News, December 2014:53.
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|Title Annotation:||Trial to Assess Chelation Therapy|
|Author:||Chappell, L. Terry; Neal, T. Rae; Paphanchith, Natallie|
|Date:||May 1, 2015|
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