COPD is a group of serious lung diseases that includes emphysema and chronic bronchitis. COPD is a leading cause of morbidity and mortality worldwide. COPD)= is the fourth leading cause of death in the United States. Its epidemiology has changed over the years and the key changes are a rising mortality rate and a greater incidence among women. COPD is typically considered a disease due to cigarette smoking, however COPD can also occur in non smokers. Worldwide, up to 10 percent of adults aged 40 and older have lung impairment consistent with chronic obstructive pulmonary disease, or COPD. As expected, COPD is more common in smokers, males, older adults, and persons living in urban areas.
COPD Treatment - Natural COPD Medication Options
Research regarding the use of natural supplements to treat COPD is quite
early, so no confident statements can be made at this time, but antioxidants and the following
nutrients and herbs could be considered:
Creatine may help with
muscle strength and endurance.
Ginseng in very low
dosages
Omega- 3 fatty acids can be
anti-inflammatory agents.
Japanese researchers at Kagoshima University Hospital found that
supplements of omega-3 fatty acids appeared to improve patients' breathing
difficulties -- possibly by countering the airway inflammation seen in
those with COPD. Omega-3 polyunsaturated fatty acids are found largely in oily
fish, and to a lesser extent in flaxseed, walnuts, soybeans and canola
oil. Half of the 64 patients drank a liquid supplement rich in omega-3
fats each day; the other half drank a supplement containing omega-6 fats,
another type of polyunsaturated fat found in many foods, including vegetable
oils and meat. After two years, patients in the omega-3 supplement group showed
an overall improvement on tests that measured their breathing during a short
bout of exercise.
Glutamine is an amino
acid
BCAA supplements could be
helpful for protein synthesis
Antioxidants and COPD
Antioxidant therapeutic targets in COPD.
Curr Drug Targets. 2006 Jun;7(6):707-20.
Rahman I, Kilty I. Department of Environmental Medicine, Division of Lung
Biology and Disease, University of Rochester Medical Center, 601 Elmwood Ave.,
Box 850, Rochester, NY.
Oxidative stress and chronic inflammation are important features in the
pathogenesis of chronic obstructive pulmonary disease ( COPD ). Oxidative stress
has important consequences for several elements of lung physiology and for the
pathogenesis of COPD, including oxidative inactivation of antiproteases and
surfactants, mucus hypersecretion, membrane lipid peroxidation, alveolar
epithelial injury, remodeling of extracellular matrix, and apoptosis. Therefore,
targeting oxidative stress with antioxidants or boosting the endogenous levels
of antioxidants is likely to be beneficial in the treatment of COPD. Antioxidant
and/or anti-inflammatory agents such as thiol molecules (glutathione and
mucolytic drugs, such as N-acetyl-L-cysteine and N-acystelyn), dietary
polyphenol (curcumin -diferuloylmethane, a principal component of turmeric),
resveratrol (a flavanoid found in red wine), green tea (theophylline and
epigallocatechin-3- gallate), ergothioneine (xanthine and peroxynitrite
inhibitor), quercetin, erdosteine and carbocysteine lysine salt, have been
reported to control NF-kappaB activation, regulation of glutathione biosynthesis
genes, chromatin remodeling and hence inflammatory gene expression. Since a
variety of oxidants, free radicals and aldehydes are implicated in the
pathogenesis of COPD it is possible that therapeutic administration of multiple
antioxidants will be effective in the treatment of COPD.
Nitrates makes COPD worse
Men who smoke increase their risk of developing COPD, emphysema and chronic
bronchitis if they eat lots of cured meat. Cured meats such as sausage, ham,
bologna, bacon and hot dogs contain high levels of nitrites, which are added to
prevent rancidity and bacterial growth and enhance a meat's pink color. And just
like cigarette smoking and air pollution, nitrites generate molecules known as
reactive oxygen and nitrogen species that have been linked to COPD. American
Journal of Epidemiology, December 15, 2007.
COPD Natural Treatment Research
Creatine supplementation during pulmonary rehabilitation in chronic obstructive
pulmonary disease.
Thorax. 2005 Jul;60(7):531-7.
Skeletal muscle wasting and dysfunction are strong independent predictors of
mortality in patients with chronic obstructive pulmonary disease (COPD).
Creatine nutritional supplementation produces increased muscle mass and exercise
performance in health. A controlled study was performed to look for similar
effects in 38 patients with COPD. Creatine
supplementation led to increases in fat-free mass, peripheral muscle strength
and endurance, health status, but not exercise capacity. Creatine may constitute
a new ergogenic treatment in COPD.
Ginseng improves pulmonary functions and exercise capacity in patients with COPD.
Arch Chest Dis. 2002 Oct-Dec;57(5-6):242-6.
Ginseng is a root that has been used to treat patients with various illnesses
for the last 2000 years. The purpose of this study was to evaluate the effects
of Ginseng extract (G115) on Pulmonary Function Tests (PFTs), Maximum Voluntary
Ventilation (MVV), Maximum Inspiratory Pressure (MIP) and Maximal Oxygen
Consumption (VO2max) in patients with moderately-severe Chronic Obstructive
Pulmonary Disease ( COPD ). Results: Ginseng 100 mg bid for three months, but
not placebo, improved PFTs, MVV, MIP and VO2 max in patients with
moderately-severe COPD with no side effects.
COPD and Glutamine, Glutamate
Low plasma glutamate and glutamine concentrations are often seen in
chronic obstructive pulmonary disease (COPD). Glutamine or glutamate
supplementation may be a good option for preventing further metabolic
disturbances in COPD patients. However, the metabolic effects of glutamate
supplementation have never been compared with those of glutamine
supplementation. In a new study, repeated ingestion of glutamine and glutamate
resulted in different effects on the plasma amino acid concentration. In both
groups, ingestion of glutamine but not of glutamate increased the plasma
concentrations of citrulline
and arginine, substrates
produced in the intestine and the liver.
Omega-3 helpful in COPD
Japanese researchers at Kagoshima University Hospital found that
supplements of omega-3 fatty acids appeared to improve patients' breathing
difficulties -- possibly by countering the airway inflammation seen in the
disease. Omega-3 polyunsaturated fatty acids are found largely in oily
fish, and to a lesser extent in flaxseed, walnuts, soybeans and canola
oil. Half of the 64 patients drank a liquid supplement rich in omega-3
fats each day; the other half drank a supplement containing omega-6 fats,
another type of polyunsaturated fat found in many foods, including vegetable
oils and meat. After two years, patients in the omega-3 supplement group showed
an overall improvement on tests that measured their breathing during a short
bout of exercise.
COPD and Weight Loss
Among people with chronic obstructive pulmonary disease (COPD),
usually emphysema, a low fat-free body mass index appears to be associated
with greater mortality. There is a clear association between decreasing
body mass index (BMI) and mortality both in the general population and in
those with COPD. Fat mass is a metabolic inactive energy source, but
fat-free mass contains the metabolic active organs, skeletal muscle being
the largest of these organs.
COPD and depression
Patients with chronic obstructive pulmonary disease COPD who suffer from
depression have shorter survival times, suggesting that antidepressant
medication, or natural antidepressants, or psychological interventions may
improve their outcomes. Natural antidepressants such as low doses of 5-HTP
or St. John's wort, are worth a try. Depression is more common in patients
with COPD than in the general population.
COPD pathophysiology
COPD primarily affects the distal airways. As a rule, inflammation
affects bronchioles at the level of the respiratory bronchiole extending to the
alveolar wall.Airway walls are infiltrated with macrophages and lymphocytes. In
contrast to asthma, the airway lymphocytes tend to be CD8+ rather than CD4+
cells. The CD4+ cells that are present in COPD tend to be Th1 rather than the
Th2 cells found in asthma. Neutrophils are found in greater numbers in the
airway lumen, and peribronchiolar fibrosis is seen in mid- to late-stage
disease. Affected airways tend to be < 2 mm in diameter; airway obstruction
results from structural narrowing caused by the inflammatory process, loss of
elastic recoil due to breakdown of intra-alveolar elastic fibers, and loss of
alveolar attachments from emphysema-induced alveolar septal destruction.
COPD and particle Inhalation
The pathogenesis of COPD mirrors a chronic inhalational dust-induced
disease. The inorganic dust in cigarette smoke is aluminum silicate or kaolinite,
a common component of clay soils. Kaolinite has been recovered in the alveolar
macrophages of smokers and has been reported as a constituent of tobacco
products. On inhalation, kaolinite deposition in the distal lung may promote
macrophage accumulation within the terminal airways leading to a respiratory
bronchiolitis. In the susceptible smoker, important genetic, environmental,
immunologic, and mechanical factors interact and modulate this small airway
inflammation, ultimately leading to the pathologic lesion of emphysema.
End stage COPD - COPD surgery
At some point in time, many patients with end-stage COPD require
intubation and mechanical ventilation to sustain life. COPD surgery is
available. A type of operation called lung volume reduction surgery (LVRS) can
provide lasting benefits for people with COPD, including improvements in
exercise ability, quality of life, and survival. COPD is a disease closely
associated with smoking, involves the destruction of the tiny air sacs in the
lungs where oxygen is exchanged for carbon dioxide. LVRS works by removing the
diseased portions of the lung, making the whole organ function better. LVRS,
however, is not for everyone with emphysema. People with COPD in the upper
portions of the lung who have low exercise capacity seem to glean the most
benefit from the operation.
COPD Exacerbation
Steroids do improve several outcomes during an acute COPD exacerbation,
and a 10- to 14-day course seems appropriate. Antibiotic use has been shown to
be beneficial, especially for patients with severe exacerbation. Changes in
bacteria strains have been documented during exacerbations, and newer
generations of antibiotics might offer a better response rate. There is no role
for mucolytic agents or chest physiotherapy in the acute exacerbation setting.
Noninvasive positive pressure ventilation might benefit a group of patients with
rapid decline in respiratory function and gas exchange.
Asthma and COPD
COPD Symptom - What are the
symptoms of COPD?
Cough is usually the first COPD symptom to develop. It is productive with
phlegm (sputum). It tends to come and go at first, and then gradually becomes
more persistent (chronic). Breathlessness ('short of breath') and wheeze may
occur only when you exert yourself at first (for example, when you climb
stairs). These symptoms tend to become gradually worse over the years if you
continue to smoke. The damaged airways make a lot more mucus than normal. This
forms sputum (phlegm). Wheezing with cough and breathlessness may become worse
than usual if you have a chest infection. Sputum usually turns yellow or green
during a chest infection.
COPD Drug Treatment
Advair does not have a significant effect on survival rates in patients
with chronic obstruction pulmonary disorder (COPD). Advair is made by the
drugmaker GlaxoSmithKline. A combination of two GlaxoSmithKline drugs may
help keep patients with chronic obstructive pulmonary disease (COPD) from
suffering severe complications. The company already reported that the
combination -- known as Advair in the United States, Viana in Germany and
Seretide in the rest of the European Union -- did not significantly cut the rate
of death in COPD patients. Advair contains a combination of fluticasone and
salmeterol.
COPD and steroid inhaler treatment
Inhaled corticosteroid therapy can termporarily improve lung function in
patients with chronic obstructive pulmonary disease (COPD), but after several
months the decline in lung function resumes. Therefore, the long term benefit of
inhaled steroid use by COPD patients is questioned.
Cough and COPD
In adults between 20 and 44 years of age, the presence of chronic cough and
phlegm greatly increases the risk of COPD, even after adjusting for smoking. The
presence of chronic cough and phlegm is not an innocent symptom, but is an early
marker of airflow obstruction. American Journal Respiratory Critical Care
Medicine 2007;175:32-39.
COPD questions
Q. Hello; have you heard of anybody prescribing pregnenalone for COPD. .
chronic obstructive pulmonary disease ?
A. No we have not. We would be quite cautious in using pregnenolone
for COPD since most people get COPD from smoking, and smoking damages heart
tissue which makes it prone to palpitations. Pregnenolone can aggravate heart
rhythm problems.
Q. I have COPD and have been taking flaxseed for the last
2 weeks and it may all be in my mind but I swear that my breathing has greatly
improved. Can flaxseed be of benefit to COPD patients? I keep very active but
generally run out of breath easily. This week I have been able to do so many
things without being completely out of breath. The only thing I am doing
differently is putting 1 tablespoon of ground flaxeed in my oatmeal. Have
studies ever been made on the benefit of flaxseed on lung disease patients?
A. We have not seen specific studies with flaxseed and COPD, but it
could be possible since flaxseed has some anti-inflammatory properties.
Essential fatty acids in health and chronic disease.
Am J Clin Nutr. 1999 Sep. Simopoulos AP.
Center for Genetics, Nutrition and Health, Washington, DC 20009
Human beings evolved consuming a diet that contained about equal amounts
of n-3 and n-6 essential fatty acids. Over the past 100-150 y there has been an
enormous increase in the consumption of n-6 fatty acids due to the increased
intake of vegetable oils from corn, sunflower seeds, safflower seeds,
cottonseed, and soybeans. Today, in Western diets, the ratio of n-6 to n-3 fatty
acids ranges from approximately 20-30:1 instead of the traditional range of
1-2:1. Beneficial effects of n-3 fatty acids have been shown in the secondary
prevention of coronary heart disease, hypertension, type 2 diabetes, and, in
some patients with renal disease, rheumatoid arthritis, ulcerative colitis,
Crohn disease, and chronic obstructive pulmonary disease.