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Ailmemts & Remedies

Smallpox

Alternative Names:Variola – major and minor; Variola

Definition:
Smallpox is an infectious disease unique to humans, caused by either of two virus variants named Variola major and Variola minor. The disease is also known by the Latin names Variola or Variola vera, which is a derivative of the Latin varius, meaning spotted, or varus, meaning “pimple”. The term “smallpox” was first used in Europe in the 15th century to distinguish variola from the great pox (syphilis).

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Smallpox localizes in small blood vessels of the skin and in the mouth and throat. In the skin, this results in a characteristic maculopapular rash, and later, raised fluid-filled blisters. V. major produces a more serious disease and has an overall mortality rate of 30–35%. V. minor causes a milder form of disease (also known as alastrim, cottonpox, milkpox, whitepox, and Cuban itch) which kills ~1% of its victims. Long-term complications of V. major infection include characteristic scars, commonly on the face, which occur in 65–85% of survivors. Blindness resulting from corneal ulceration and scarring, and limb deformities due to arthritis and osteomyelitis are less common complications, seen in about 2–5% of cases.

Smallpox is believed to have emerged in human populations about 10,000 BC. The disease killed an estimated 400,000 Europeans each year during the 18th century (including five reigning monarchs), and was responsible for a third of all blindness. Between 20 and 60% of all those infected—and over 80% of infected children—died from the disease.

During the 20th century, it is estimated that smallpox was responsible for 300–500 million deaths. In the early 1950s an estimated 50 million cases of smallpox occurred in the world each year. As recently as 1967, the World Health Organization estimated that 15 million people contracted the disease and that two million died in that year. After successful vaccination campaigns throughout the 19th and 20th centuries, the WHO certified the eradication of smallpox in December 1979. To this day, smallpox is the only human infectious disease to have been completely eradicated.

Causes & Risk Factors:
Smallpox is caused by infection with variola virus, which belongs to the genus Orthopoxvirus, the family Poxviridae, and subfamily chordopoxvirinae. Variola virus is a large brick-shaped virus measuring approximately 302 to 350 nanometers by 244 to 270 nm, with a single linear double stranded DNA genome consisting of 186 kilobase pairs (kbp) and containing a hairpin loop at each end. The two classic varieties of smallpox are variola major and variola minor. The closest viral relative is molluscum contagiosum, which like smallpox, infects only humans. However, unlike variola species, molluscum infection is benign. The lifecycle of poxviruses is complicated by having multiple infectious forms, with differing mechanisms of cell entry. Poxviruses are unique among DNA viruses in that they replicate in the cytoplasm of the cell rather than in the nucleus. In order to replicate, poxviruses produce a variety of specialized proteins not produced by other DNA viruses, the most important of which is a viral-associated DNA-dependent RNA polymerase. Both enveloped and unenveloped virions are infectious. The viral envelop is made of modified Golgi membranes containing viral-specific polypeptides, including hemagglutinin. Infection with either variola major and variola minor confers immunity against the other.

Four orthopoxviruses cause infection in humans: variola, vaccinia, cowpox, and monkeypox. Variola virus infects only humans in nature, although primates and other animals have been infected in a laboratory setting. Vaccinia, cowpox, and monkeypox viruses can infect both humans and other animals in nature.

Smallpox was once found throughout the world, causing illness and death wherever it occurred. Smallpox was primarily a disease of children and young adults, with family members often infecting each other.

There are two forms of smallpox:

*Variola major is a serious illness with a death rate of about 30% or more in unvaccinated people

*Variola minor is a milder infection with a death rate of less than 1%.

The incubation period for smallpox is approximately 12-14 days.

A massive program by the World Health Organization (WHO) eradicated all known smallpox viruses from the world in 1977, except for samples that were saved by various governments for research purposes. The vaccine was discontinued in the United States in 1972. In 1980, WHO recommended that all countries stop vaccinating for smallpox.

In 1980, WHO also recommended that the remaining virus samples be transferred to two WHO laboratories for storage. Those laboratories were the Centers for Disease Control (CDC) in Atlanta, Georgia, and a laboratory in Russia. Russia, however, started a program to produce the smallpox virus in mass quantities, specifically for bombs and other weaponry.

Some believe that other countries such as Iraq, Iran, and North Korea may also hold some stores of the smallpox virus. Researchers continue to debate whether or not to kill the last remaining samples of the virus, or to preserve it in case there may be some future reason to study it.

According to the CDC, since the vaccine has not been administered in the U.S. since 1972, those persons who had received the vaccine in the past are likely susceptible now (as are those who have never been vaccinated). It is not known how long previous vaccinations would remain effective, but it is unlikely that people would still have a high enough level of immunity to protect against the virus.

Risk factors for smallpox include being a laboratory worker who handles the virus (rare), or being in the environment where the virus was released as a biological weapon.

THE RISK OF TERRORISM
It is conceivable that smallpox could be deliberately reintroduced into the population. Smallpox could be released by aerosol, and it would spread easily because the virus remains very stable in aerosol form.

It would take no more than 50-100 cases to cause legitimate concern on an international level. Emergency measures would need to be taken immediately.

Smallpox is highly contagious from one person to another. It is most contagious during the first week, and is spread from saliva droplets. It may continue to be contagious until the scabs from the rash fall off. It may also be spread from bed sheets and clothing.

Researchers believe that the smallpox infection (if released in aerosol form, under favorable conditions, without sunlight) could remain viable for as long as 24 hours. In unfavorable conditions, the virus may only remain viable for 6 hours. There is clear evidence that shows that the virus can remain viable on bed linens and clothes for significant periods of time.

Symptoms :
There are two clinical forms of smallpox. Variola major is the severe and most common form of smallpox, with a more extensive rash and higher fever. There are four types of variola major smallpox based on the Rao classification: ordinary, modified, flat, and hemorrhagic.

Ordinary
Ninety percent or more of smallpox cases among unvaccinated persons are of the ordinary type. In this form of the disease, by the second day of the rash, the macules become raised papules. By the third or fourth day the papules fill with an opalescent fluid to become vesicles. This fluid becomes opaque and turbid within 24–48 hours, giving them the appearance of pustules; however, the so-called pustules are filled with tissue debris, not pus.

By the sixth or seventh day, all the skin lesions have become pustules. Between 7 and 10 days the pustules mature and reach their maximum size. The pustules are sharply raised, typically round, tense, and firm to the touch. The pustules are deeply embedded in the dermis, giving them the feel of a small bead in the skin. Fluid slowly leaks from the pustules, and by the end of the second week the pustules deflate, and start to dry up, forming crusts (or scabs). By day 16-20 scabs have formed over all the lesions, which have started to flake off, leaving de-pigmented scars.

Ordinary smallpox generally produces a discrete rash, in which the pustules stand out on the skin separately. The distribution of the rash is densest on the face; more dense on the extremities than on the trunk; and on the extremities, more dense on the distal parts than on the proximal. The palms of the hands and soles of the feet are involved in the majority of cases. In some cases, the blisters merge together into sheets, forming a confluent rash, which begin to detach the outer layers of skin from the underlying flesh. Patients with confluent smallpox often remain ill even after scabs have formed over all the lesions. In one case series, the case-fatality rate in confluent smallpox was 62%

Modified
Referring to the character of the eruption and the rapidity of its development, modified smallpox occurs mostly in previously vaccinated people. In this form the prodromal illness still occurs but may be less severe than in the ordinary type. There is usually no fever during evolution of the rash. The skin lesions tend to be fewer and evolve more quickly, are more superficial, and may not show the uniform characteristic of more typical smallpox. Modified smallpox is rarely, if ever, fatal. This form of variola major is more easily confused with chickenpox.

Flat
In Flat-type smallpox (also called malignant smallpox) the lesions remain almost flush with the skin at the time when raised vesicles form in ordinary-type smallpox. It is unknown why some people develop this type of disease. Historically, flat-type smallpox accounted for 5%–10% of cases, and the majority (72%) were in children. Flat smallpox is accompanied by a severe prodromal phase that lasts 3–4 days, prolonged high fever, and severe symptoms of toxemia. The rash on the tongue and palate is usually extensive. The skin lesions mature very slowly and by the seventh or eighth day the lesions are flat and appear to be buried in the skin. Unlike ordinary-type smallpox, the vesicles contain very little fluid, are soft and velvety to the touch, and may contain hemorrhages. Flat-type smallpox is nearly always fatal.

Hemorrhagic
Hemorrhagic smallpox is a severe form of smallpox that is accompanied by extensive bleeding into the skin, mucous membranes, and gastrointestinal tract. This form developed in perhaps 2% of infections and occurred mostly in adults. In hemorrhagic smallpox the skin does not blister, but remains smooth. Instead, bleeding occurs under the skin, making the skin look charred and black (this is known as black pox).

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In the early, or fulminating, form, hemorrhaging appears on the second or third day as sub-conjunctival bleeding turns the whites of the eyes deep red. Hemorrhagic smallpox also produces a dusky erythema, petechiae, and hemorrhages in the spleen, kidney, serosa, muscle, and, rarely, the epicardium, liver, testes, ovaries and bladder. Death often occurs suddenly between the fifth and seventh days of illness, when only a few insignificant skin lesions are present. A later form of the disease occurs in patients who survive for 8–10 days. The hemorrhages appear in the early eruptive period, and the rash is flat and does not progress beyond the vesicular stage. Patients in the early stage of disease show a decrease in platelets, prothrombin, and globulin, and an increase in circulating antithrombin. Patients in the late stage have significant thrombocytopenia; however, deficiency of coagulation factors is less severe. Some in the late stage also show increased antithrombin. This form of smallpox occurs in anywhere from 3–25% of fatal cases (depending on the virulence of the smallpox strain).

Common Symptoms are:

*High fever
*Fatigue
*Severe headache
*Backache
*Malaise
*Raised pink rash — turns into pus-filled lesions that become crusty on day 8 or 9
*Delirium
*Vomiting
*Diarrhea
*Excessive bleeding

Diagnosis:
The clinical definition of smallpox is an illness with acute onset of fever greater than 101°F (38.3°C) followed by a rash characterized by firm, deep seated vesicles or pustules in the same stage of development without other apparent cause.

Microscopically, one sees Guarnieri bodies, which are aggregates of the virus. Guarnieri bodies appear as pink blobs. The absence of Guarnieri bodies cannot be used to rule out smallpox, however.

If a clinical case is observed, smallpox is confirmed using laboratory tests. The diagnosis of an orthopoxvirus infection can be made rapidly by electron microscopic examination of pustular fluid or scabs. However, all orthopoxviruses exhibit identical brick-shaped virions by electron microscopy. Definitive laboratory identification of variola virus involves growing the virus on chorioallantoic membrane (part of a chicken embryo) and examining the resulting pock lesions under defined temperature conditions. Strains may be characterized by polymerase chain reaction (PCR) or restriction fragment length polymorphism (RFLP) analysis. Serologic tests and enzyme linked immunosorbent assays (ELISA), which measure variola virus-specific immunoglobulin and antigen have also been developed to assist in the diagnosis of infection.

Chickenpox was commonly confused with smallpox in the immediate post-eradication era. Chickenpox and smallpox can be distinguished by several methods. Unlike smallpox, chickenpox does not usually affect the palms and soles. Additionally, chickenpox pustules are of varying size due to variations in the timing of pustule eruption: smallpox pustules are all very nearly the same size since the viral effect progresses more uniformly. A variety of laboratory methods are available for detecting chickenpox in evaluation of suspected smallpox cases.

Risk Factors:
Complications of smallpox arise most commonly in the respiratory system and range from simple bronchitis to fatal pneumonia. Respiratory complications tend to develop on about the eighth day of the illness and can be either viral or bacterial in origin. Secondary bacterial infection of the skin is a relatively uncommon complication of smallpox. When this occurs, the fever usually remains elevated.

Other complications include encephalitis (1 in 500 patients), which is more common in adults and may cause temporary disability; permanent pitted scars, most notably on the face; and complications involving the eyes (2% of all cases). Pustules can form on the eyelid, conjunctiva, and cornea, leading to complications such as conjunctivitis, keratitis, corneal ulcer, iritis, iridocyclitis, and optic atrophy. Blindness results in approximately 35% to 40% of eyes affected with keratitis and corneal ulcer. Hemorrhagic smallpox can cause subconjunctival and retinal hemorrhages. In 2% to 5% of young children with smallpox, virions reach the joints and bone, causing osteomyelitis variolosa. Lesions are symmetrical, most common in the elbows, tibia, and fibula, and characteristically cause separation of an epiphysis and marked periosteal reactions. Swollen joints limit movement, and arthritis may lead to limb deformities, ankylosis, malformed bones, flail joints, and stubby fingers.

Treatment
Smallpox vaccination within three days of exposure will prevent or significantly lessen the severity of smallpox symptoms in the vast majority of people. Vaccination four to seven days after exposure likely offers some protection from disease or may modify the severity of disease. Other than vaccination, treatment of smallpox is primarily supportive, such as wound care and infection control, fluid therapy, and possible ventilator assistance. Flat and hemorrhagic types of smallpox are treated with the same therapies used to treat shock, such as fluid resuscitation. Patients with semi-confluent and confluent types of smallpox may have therapeutic issues similar to patients with extensive skin burns.

No drug is currently approved for the treatment of smallpox. However, antiviral treatments have improved since the last large smallpox epidemics, and studies suggest that the antiviral drug cidofovir might be useful as a therapeutic agent. The drug must be administered intravenously, however, and may cause serious renal toxicity.

If the smallpox vaccination is given within 1-4 days of exposure to the disease, it may prevent illness, or at least lessen the degree of illness associated with the disease. Treatment, once the disease symptoms have started, is limited.

There is no agent that has been specifically made for treating smallpox. Sometimes antibiotics are given for secondary infections that may occur. Vaccinia immune globulin (antibodies against a disease similar to smallpox) may help shorten the disease.

If a diagnosis of smallpox were made, exposed persons would need to be isolated immediately. The isolation would include not just the person who contracted the disease, but all other face-to-face contacts with that person.

These individuals would need the vaccine and need to be monitored. Emergency measures to protect a broader segment of the population would have to be implemented immediately, within the recommended guidelines from the CDC and other federal and local health agencies.

Possible Complications
*Bacterial infections at the skin at the sites of the lesions
*Pitted scars from pustules
*Arthritis and bone infections
*Pneumonia
*Severe bleeding
*Eye infections
*Brain inflammation (encephalitis)
*Death

Prevention
Many people were vaccinated for smallpox in the past — but the vaccination is no longer given because the virus has been eradicated. According to the CDC, the United States has supply of the smallpox vaccine sufficient for the entire population at this time.

There are some complications associated with the vaccine, should the vaccine need to be given in the future to control an outbreak. Some of these are easily treated rashes, while other potential complications are more serious. The risk of complications is relatively low. (For example, the chance of encephalitis, which could be a fatal complication, is 1 out of 300,000).

When smallpox was eradicated, the general population was no longer vaccinated because the potential complications and costs began to outweigh the benefits of taking it. The experience of vaccination of both military personnel and civilian health care workers in 2002-2003 suggested that the risk was very low but nonetheless present, and very small numbers of people had unforeseen reactions.

Smallpox vaccination is not currently being done for members of the general public. As of mid-2003, any further vaccination outside of military personnel is likely to be done, in a closely supervised fashion, in health care workers and emergency responders. There is ongoing review of smallpox vaccination, including the current and newer vaccines.

Eradication
Since Jenner demonstrated the effectiveness of cowpox to protect humans from smallpox in 1796, various attempts were made to eliminate smallpox on a regional scale. As early as 1803, the Spanish Crown organized a mission (the Balmis expedition) to transport the vaccine to the Spanish colonies in the Americas and the Philippines, and establish mass vaccination programs there. In 1842, England banned inoculation, later progressing to mandatory vaccination. The British government introduced compulsory smallpox vaccination by an Act of Parliament in 1853. In the United States, from 1843 to 1855 first Massachusetts, and then other states required smallpox vaccination. Although some disliked these measures, coordinated efforts against smallpox went on, and the disease continued to diminish in the wealthy countries. By 1897, smallpox had largely been eliminated from the United States. In Northern Europe a number of countries had eliminated smallpox by 1900, and by 1914, the incidence in most industrialized countries had decreased to comparatively low levels. Vaccination continued in industrialized countries, until the mid to late 1970s as protection against reintroduction. Australia and New Zealand are two notable exceptions; neither experienced endemic smallpox and never vaccinated widely, relying instead on protection by distance and strict quarantines.

Post-eradication
The last cases of smallpox in the world occurred in an outbreak of two cases (one of which was fatal) in Birmingham, England in 1978. A medical photographer, Janet Parker, contracted the disease at the University of Birmingham Medical School and died on 11 September 1978, after which the scientist responsible for smallpox research at the university, Professor Henry Bedson, committed suicide. In light of this accident, all known stocks of smallpox were destroyed or transferred to one of two WHO reference laboratories; the Centers for Disease Control and Prevention (CDC) in the United States and the State Research Center of Virology and Biotechnology VECTOR in Koltsovo, Russia where a regiment of troops guard it. In 1986, the World Health Organization recommended destruction of the virus, and later set the date of destruction to be 30 December 1993. This was postponed to 30 June 1995. In 2002 the policy of the WHO changed to be against its final destruction.[45] Destroying existing stocks would reduce the risk involved with ongoing smallpox research; the stocks are not needed to respond to a smallpox outbreak. However, the stocks may be useful in developing new vaccines, antiviral drugs, and diagnostic tests.

In March 2004 smallpox scabs were found tucked inside an envelope in a book on Civil War medicine in Santa Fe, New Mexico.[48] The envelope was labeled as containing the scabs and listed the names of the patients they came from. Assuming the contents could be dangerous, the librarian who found them did not open the envelope. The scabs ended up with employees from the CDC who responded quickly once informed of the discovery. The discovery raised concerns that smallpox DNA could be extracted from these and other scabs and used for a biological attack.

Disclaimer: This information is not meant to be a substitute for professional medical advise or help. It is always best to consult with a Physician about serious health concerns. This information is in no way intended to diagnose or prescribe remedies.This is purely for educational purpose

Resources:
http://www.nlm.nih.gov/medlineplus/ency/article/001356.htm
http://en.wikipedia.org/wiki/Smallpox

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Avoid Flu Shots With the One Vitamin that Will Stop Flu in Its Tracks

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Another influenza season is beginning, and the U.S. Center for Disease Control and Prevention (CDC) will strongly urge Americans to get a flu shot. In fact, the CDC mounts a well-orchestrated campaign each season to generate interest and demand for flu shots.

But a recent study published in the October issue of the Archives of Pediatric & Adolescent Medicine found that vaccinating young children against the flu appeared to have no impact on flu-related hospitalizations or doctor visits during two recent flu seasons.

At first glance, the data did suggest that children between the ages of 6 months and 5 years derived some protection from vaccination in these years. But after adjusting for potentially relevant variables, the researchers concluded that “significant influenza vaccine effectiveness could not be demonstrated for any season, age, or setting” examined.

Additionally, a Group Health study found that flu shots do not protect elderly people against developing pneumonia — the primary cause of death resulting as a complication of the flu. Others have questioned whether there is any mortality benefit with influenza vaccination. Vaccination coverage among the elderly increased from 15 percent in 1980 to 65 percent now, but there has been no decrease in deaths from influenza or pneumonia.

There is some evidence that flu shots cause Alzheimer’s disease, most likely as a result of combining mercury with aluminum and formaldehyde. Mercury in vaccines has also been implicated as a cause of autism.

Three other serious adverse reactions to the flu vaccine are joint inflammation and arthritis, anaphylactic shock (and other life-threatening allergic reactions), and Guillain-Barré syndrome, a paralytic autoimmune disease.

One credible hypothesis that explains the seasonal nature of flu is that influenza is a vitamin D deficiency disease.

Vitamin D levels in your blood fall to their lowest point during flu seasons. Unable to be protected by the body’s own antibiotics (antimicrobial peptides) that are released by vitamin D, a person with a low vitamin D blood level is more vulnerable to contracting colds, influenza, and other respiratory infections.

Studies show that children with rickets, a vitamin D-deficient skeletal disorder, suffer from frequent respiratory infections, and children exposed to sunlight are less likely to get a cold. The increased number of deaths that occur in winter, largely from pneumonia and cardiovascular diseases, are most likely due to vitamin D deficiency.

Unfortunately, now, for the first time, flu vaccination is also being pushed for virtually all children — not just those under 5.

This is a huge change. Previously, flu vaccine was recommended only for youngsters under 5, who can become dangerously ill from influenza. This year, the government is recommending that children from age 6 months to 18 years be vaccinated, expanding inoculations to 30 million more school-age children.

The government argues that while older children seldom get as sick as the younger ones, it’s a bigger population that catches flu at higher rates, so the change should cut missed school, and parents’ missed work when they catch the illness from their children.

Of course, this policy ignores the fact that a systematic review of 51 studies involving 260,000 children age 6 to 23 months found no evidence that the flu vaccine is any more effective than a placebo.

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Ailmemts & Remedies

Whooping Cough (Petrusis)

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Definition:
Whooping cough – or pertussis – is an infection of the respiratory system caused by the bacterium Bordetella pertussis (or B. pertussis). It’s characterized by severe coughing spells that end in a “whooping” sound when the person breathes in. Before a vaccine was available, pertussis killed 5,000 to 10,000 people in the United States each year. Now, the pertussis vaccine has reduced the annual number of deaths to less than 30.

It is an upper respiratory infection and is a serious disease that can cause permanent disability in infants, and even death.

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Pertussis was recognizably described as early as 1578 by Guillaume de Baillou (1538-1616), but earlier reports date back at least to the 12th century. B. pertussis was isolated in pure culture in 1906 by Jules Bordet and Octave Gengou, who also developed the first serology and vaccine. The complete B. pertussis genome of 4,086,186 base pairs was sequenced in 2002.

In recent years, the number of cases has started to rise. By 2004, the number of whooping cough cases spiked past 25,000, the highest level it’s been since the 1950s. It’s mainly affected infants who are younger than 6 months old before they are adequately protected by their immunizations, and kids who are 11 to 18 years old whose immunity has faded.

Although whooping cough can occur at any age, it’s most severe in unimmunized children and in infants under 1 year of age (early immunization can usually prevent this serious disease in babies). But more cases have been reported in teens and adults, because their immunity has faded since their original vaccination. That’s why the American Academy of Pediatrics (AAP) recently recommended that kids who are 11-18 years old get a booster shot that includes a pertussis vaccine, preferably when they are 11 to 12 years old.

Incubation:
The incubation period (the time between infection and the onset of symptoms) for whooping cough is usually 7 to 10 days, but can be as long as 21 days.

Signs and Symptoms:

The first symptoms of whooping cough are similar to those of a common cold:
After a 7 to 10 day incubation period, pertussis in infants and young children is characterized initially by mild respiratory infection symptoms such as cough, sneezing, and runny nose (catarrhal stage). After one to two weeks, the cough changes character, with paroxysms of coughing followed by an inspiratory “whooping” sound (paroxysmal stage). Coughing fits may be followed by vomiting due to the sheer violence of the fit. In severe cases, the vomiting induced by coughing fits can lead to malnutrition. The fits that do occur on their own can also be triggered by yawning, stretching, laughing, or yelling. Coughing fits gradually diminish over one to two months during the convalescent stage. Other complications of the disease include pneumonia, encephalitis, pulmonary hypertension, and secondary bacterial superinfection.

Because neither vaccination nor infection confers long-term immunity, infection of adolescents and adults is also common Most adults and adolescents who become infected with Bordetella pertussis have been vaccinated or infected years previously. When there is residual immunity from previous infection or immunization, symptoms may be milder, such as a prolonged cough without the other classic symptoms of pertussis. Nevertheless, infected adults and adolescents can transmit the bacteria to susceptible individuals. Adults and adolescent family members are the major source of transmission of the bacteria to unimmunized or partially immunized infants, who are at greatest risk of severe complications from pertussis.

After about 1 to 2 weeks, the dry, irritating cough evolves into coughing spells. During a coughing spell, which can last for more than a minute, the child may turn red or purple. At the end of a spell, the child may make a characteristic whooping sound when breathing in or may vomit. Between spells, the child usually feels well.

Although it’s likely that infants and younger children who become infected with B. pertussis will develop the characteristic coughing episodes with their accompanying whoop, not everyone will. However, sometimes infants don’t cough or whoop as older children do. They may look as if they’re gasping for air with a reddened face and may actually stop breathing for a few seconds during particularly bad spells.

Adults and adolescents with whooping cough may have milder or atypical symptoms, such as a prolonged cough without the coughing spells or the whoop.

Duration:
Pertussis can cause prolonged symptoms. The child usually has 1 to 2 weeks of common cold symptoms first. This is followed by approximately 2 to 4 weeks of severe coughing, though the coughing spells can sometimes last even longer. The last stage consists of another several weeks of recovery with gradual resolution of symptoms. In some children, the recovery period may last for months.

Transmission :
Pertussis is highly contagious. The bacteria spread from person to person through tiny drops of fluid from an infected person’s nose or mouth. These may become airborne when the person sneezes, coughs, or laughs. Other people then can become infected by inhaling the drops or getting the drops on their hands and then touching their mouths or noses. Infected people are most contagious during the earliest stages of the illness up to about 2 weeks after the cough begins. Antibiotics shorten the period of contagiousness to 5 days following the start of antibiotic treatment.

Diagnosis:
Because the symptoms during the catarrhal stage are nonspecific, pertussis is usually not diagnosed until the appearance of the characteristic cough of the paroxysmal stage. Methods used in laboratory diagnosis include culturing of nasopharyngeal swabs on Bordet-Gengou medium, polymerase chain reaction (PCR), immunofluorescence (DFA), and serological methods. The bacteria can be recovered from the patient only during the first three weeks of illness, rendering culturing and DFA useless after this period, although PCR may have some limited usefulness for an additional three weeks. For most adults and adolescents, who often do not seek medical care until several weeks into their illness, serology is often used to determine whether antibody against pertussis toxin or another component of B. pertussis is present at high levels in the blood of the patient.

Modern Treatment:
Treatment with an effective antibiotic shortens the infectious period but does not generally alter the outcome of the disease; however, when treatment is initiated during the catarrhal stage, symptoms may be less severe. Three macrolides, erythromycin, azithromycin and clarithromycin are used in the U.S. for treatment of pertussis; trimethoprim-sulfamethoxazole is generally used when a macrolide is ineffective or is contraindicated. Close contacts who receive appropriate antibiotics (chemoprophylaxis) during the 7–21 day incubation period may be protected from developing symptomatic disease. Close contacts are defined as anyone coming into contact with the respiratory secretions of an infected person in the 21 days before or after the infected person’s cough began.

Some children with whooping cough need to be treated in a hospital. Infants and younger children are more likely to be hospitalized because they’re at greater risk for complications such as pneumonia, which occurs in about one in five children under the age of 1 year who have pertussis. Up to 75% of infants younger than 6 months old with whooping cough will receive hospital treatment. Infants and younger children are more likely to require hospitalization because they’re at greater risk for complications such as pneumonia, ear infection, dehydration, and seizures. In infants younger than 6 months of age, whooping cough can even be life-threatening.

While in the hospital, a child may need suctioning of thick respiratory secretions. The child’s breathing will be monitored, and oxygen may be needed. Intravenous (IV) fluids might be required if the child shows signs of dehydration or has difficulty eating. The child also will be isolated from other patients, with special precautions taken to prevent the infection from spreading to other patients, hospital staff, and visitors.

Home Treatment:
If your child is being treated for pertussis at home, follow the schedule for giving antibiotics exactly as your child’s doctor prescribed. Giving your child cough medicine probably will not help, as even strong cough medicines usually can’t relieve the coughing spells of whooping cough.

During recovery, let your child rest in bed and use a cool-mist vaporizer. This will help loosen respiratory secretions and soothe irritated lungs and breathing passages. (If you use a vaporizer, be sure to follow directions for keeping it clean and mold-free, usually with small amounts of bleach.) In addition, try to keep your home free of irritants that can trigger coughing spells, such as aerosol sprays, tobacco smoke, and smoke from cooking, fireplaces, and wood-burning stoves.

Children with whooping cough may vomit or not eat or drink as much because of frequent coughing. So offer smaller, more frequent meals and encourage your child to drink lots of fluids. Watch for signs of dehydration too, including: thirst, irritability, restlessness, lethargy, sunken eyes, a dry mouth and tongue, dry skin, crying without tears, and fewer trips to the bathroom to urinate (or in infants, fewer wet diapers).

Home Remedy: Sunflower seeds have diuretic as well as expectorant properties, and thus have been used successfully for the treatment of bronchial ailments such as bronchitis, coughs, colds, and whooping cough. Modern homeopathic use for Sunflowers includes treatment foren ailments, intermittent fever, nosebleed, nausea, and vomiting. A tea of the toasted seed may be used for whooping cough. The leaves are often included in herbal tobacco mixtures.

Herbal and Home Remedies for the treatment of Whooping Cough (Pertussis)

Herbal Tonic: 1 part White Horehound, 2 parts Mouse Ear, 1 part Sundew, 1 part Coltsfoot, 1 part Thyme. Mix all ingredients together. Use 1-2 teaspoon to 1 cup of boiling water. Steep 10 minutes.

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Prevention:
Whooping cough can be prevented with the pertussis vaccine, which is part of the DTaP (diphtheria, tetanus, acellular pertussis) immunization. DTaP immunizations are routinely given in five doses before a child’s sixth birthday.Pertussis vaccines are highly effective, strongly recommended, and save countless infant lives every year. Though the protection they offer lasts only a few years, they are given so that immunity lasts through childhood, the time of greatest exposure and greatest risk. To give additional protection in case immunity fades, the AAP now recommends that kids ages 11-18 get a booster shot of the new combination vaccine (called Tdap), ideally when they’re 11 or 12 years old, instead of the Td booster routinely given at this age. As is the case with all immunization schedules, there are important exceptions and special circumstances. Your child’s doctor will have the most current information.

Experts believe that up to 80% of nonimmunized family members will develop whooping cough if they live in the same house as someone who has the infection. For this reason, anyone who comes into close contact with a person who has pertussis should receive antibiotics to prevent spread of the disease. Young children who have not received all five doses of the vaccine may require a booster dose if exposed to an infected family member.

The tetanus toxoid, reduced diphtheria toxoid and acellular pertussis vaccine (Tdap) – will replace the Td (tetanus and reduced diphtheria toxoids) vaccine in the childhood immunization schedule. The Td vaccine is used for booster doses for adolescents and adults.

During a pertussis outbreak, unimmunized children under age 7 should not attend school or public gatherings, and should be isolated from anyone known or suspected to be infected. This should last until 14 days after the last reported case.

Some health care organizations strongly recommend that adults up to the age of 65 years receive the adult form of the vaccine against pertussis.

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Homeopathic Alternative to Vaccines

Disclaimer: This information is not meant to be a substitute for professional medical advise or help. It is always best to consult with a Physician about serious health concerns. This information is in no way intended to diagnose or prescribe remedies.

.References :

http://en.wikipedia.org , http://www.nlm.nih.gov/medlineplus/ency/article , http/kidshealth.org/parent/infections/bacterial

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News on Health & Science Pediatric

One Flu Shot May Offer ‘Whole Herd’ Protection

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FLU SHOTS for KIDS HELP PROTECT the WHOLE FAMILY.

Flu shots for elementary school children can help reduce flu like illness in the whole family, finds new research published in the New England Journal of Medicine this week. Doctors compared families and schools where, in some cases, the elementary school-age kids were offered free flu vaccination. Adults in the families of the vaccinated kids had fewer bouts of flu like illness, and they missed less work due to sickness in either themselves or their children. Elementary-age and high school age children were absent from school less frequently in families where at least one child was vaccinated. Researchers say that vaccinated kids are less likely to catch the flu and bring it home, thus offering “whole herd” protection to people around them.

Source      :ABC News

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Ailmemts & Remedies

Chronic Fatigue Syndrome

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Many people turn to supplements to combat the persistent tiredness and flu like symptoms that characterize this poorly understood and disabling disorder. Although no one knows its cause, a weakened immune system may be a factor.

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Symptoms
Continuing or recurring fatigue lasting at least six months and not relieved by sleep or rest.
Memory loss, inability to concentrate, headaches.
Low-grade fever, muscle or joint aches, sore throat, or swollen lymph nodes in neck or armpits.

When to Call Your Doctor
Fatigue that lasts longer than two weeks or is accompanied by sudden weight loss, muscle weakness, or other unusual symptoms may signal other, more serious ailments.
Fatigue can be a side effect of certain medications. Your doctor can rule out other possible and often correctable causes.
Have your doctor monitor your progress even if you are improving or if fatigue worsens despite home treatment.
Reminder: If you have a medical condition, talk to your doctor before taking supplements.

What It Is
Marked by profound and persistent exhaustion, chronic fatigue syndrome (CFS) affects more women than men, most younger than age 50. Patients feel weak and listless much of the time and often have difficulty sleeping, concentrating, and performing daily tasks; many also have underlying depression. Doctors disagree about whether CFS is a specific condition or a group of unrelated symptoms not attributable to a single cause.

What Causes It
The specific cause of CFS is unknown, but an impaired immune response may play a role in its onset. People with CFS have other immune disturbances as well: About 65% are allergy sufferers (versus only 20% in the general population), and some have autoimmune disorders such as lupus, in which the immune system attacks the body’s own healthy tissues.

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How Supplements Can Help
Supplement therapy aims to restore a healthy immune system, so begin with vitamin C and carotenoids. A powerful immune enhancer, echinacea can be added to the mix; it can be alternated with the herbs astragalus, which has antiviral and immunity-enhancing effects, pau d’arco, which fights many microbes (especially the yeast infections so common in those with low immunity), or goldenseal. For muscle pain, use magnesium too.

What Else You Can Do
Try behavioral counseling and relaxation techniques, such as hypnosis or meditation, to manage stress and treat any underlying depression.
Get a good night’s sleep. If needed, use supplements for insomnia, such as valerian, melatonin, or 5-HTP.
Mild aerobic exercise may be excellent for chronic fatigue syndrome, according to a recent study in the British Medical Journal. After a 12-week program of walking, swimming, or biking from 5 to 30 minutes a day, 55% of CFS patients felt “much” or very much better. Relaxation and stretching exercises may also work. But start and proceed slowly: If you do too much, you may suffer a setback. It may help to keep an energy diary-to record peaks and ebbs of energy-and plan your schedule around the times you routinely feel the best.

Supplement Recommendations

Vitamin C
Carotenoids
Magnesium
Echinacea
Siberian Ginseng
Licorice
Pantothenic Acid
Astragalus
Pau d’arco

Vitamin C
Dosage: 2,000 mg 3 times a day.
Comments: Reduce dose if diarrhea develops.

Carotenoids
Dosage: 2 pills mixed carotenoids a day with food.
Comments: Each pill should supply 25,000 IU vitamin A activity.

Magnesium

Dosage: 400 mg once a day.
Comments: Take with food; reduce dose if diarrhea develops.

Echinacea
Dosage: 200 mg twice a day.
Comments: Standardized to contain at least 3.5% echinacosides. Limit consecutive use to 3 weeks or rotate with other herbs.

Siberian Ginseng
Dosage: 100-300 mg twice a day.
Comments: Standardized to contain at least 0.8% eleutherosides.

Licorice
Dosage: 200 mg 3 times a day.
Comments: Standardized to contain 22% glycyrrhizin or glycyrrhizinic acid; can raise blood pressure.

Pantothenic Acid

Dosage: 500 mg twice a day.
Comments: Take with meals. Provides adrenal gland support.

Astragalus
Dosage: 200 mg standardized extract twice a day.
Comments: Rotate in 3-week cycles with echinacea and pau d’arco.

Pau d’arco
Dosage: 250 mg twice a day.
Comments: Standardized to contain 3% naphthoquinones.
Disclaimer: This information is not meant to be a substitute for professional medical advise or help. It is always best to consult with a Physician about serious health concerns. This information is in no way intended to diagnose or prescribe remedies.This is purely for educational purpose.

Source:Your Guide to Vitamins, Minerals, and Herbs

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