Lori Kingsbury Certified Massage Therapist

Lori Kingsbury Certified Massage Therapist Make Your Health A Priority Certified Massage Therapist
School wellness ins. 2010
Swedish, Deep Tissue, Hot Stones,Shiatsu, Thai Massage.

Gift Certificates Available
Reasonable Rates. $40 for an hour massage and $55 for an hour and a half.

10/26/2021
10/03/2021
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06/07/2021

Reasonable rates

02/10/2014

What Happens When You Breathe?
By The National Heart, Lung, and Blood Institute (NHLBI)

Breathing In (Inhalation)
When you breathe in, or inhale, your diaphragm contracts (tightens) and moves downward. This increases the space in your chest cavity, into which your lungs expand. The intercostal muscles between your ribs also help enlarge the chest cavity. They contract to pull your rib cage both upward and outward when you inhale.

As your lungs expand, air is sucked in through your nose or mouth. The air travels down your windpipe and into your lungs. After passing through your bronchial tubes, the air finally reaches and enters the alveoli (air sacs).

Through the very thin walls of the alveoli, oxygen from the air passes to the surrounding capillaries (blood vessels). A red blood cell protein called hemoglobin (HEE-muh-glow-bin) helps move oxygen from the air sacs to the blood.

At the same time, carbon dioxide moves from the capillaries into the air sacs. The gas has traveled in the bloodstream from the right side of the heart through the pulmonary artery.

Oxygen-rich blood from the lungs is carried through a network of capillaries to the pulmonary vein. This vein delivers the oxygen-rich blood to the left side of the heart. The left side of the heart pumps the blood to the rest of the body. There, the oxygen in the blood moves from blood vessels into surrounding tissues.

(For more information on blood flow, go to the Health Topics How the Heart Works article.)

Breathing Out (Exhalation)

When you breathe out, or exhale, your diaphragm relaxes and moves upward into the chest cavity. The intercostal muscles between the ribs also relax to reduce the space in the chest cavity.

As the space in the chest cavity gets smaller, air rich in carbon dioxide is forced out of your lungs and windpipe, and then out of your nose or mouth.

Breathing out requires no effort from your body unless you have a lung disease or are doing physical activity. When you're physically active, your abdominal muscles contract and push your diaphragm against your lungs even more than usual. This rapidly pushes air out of your lungs.

11/18/2013

Dehydration
Benjamin Wedro, MD, FACEP, FAAEM & Melissa Conrad Stöppler, MD

Dehydration facts:

The body needs water to function.

Dehydration occurs when water intake is less than water loss.

Symptoms range from mild to life-threatening.

The young and the elderly are especially susceptible to dehydration.

What is dehydration?

Water is a critical element of the body, and keeping the body adequately hydrated is a must to allow the body to function. Up to 75% of the body's weight is made up of water. Most of the water is found within the cells of the body (intracellular space). The rest is found in the extracellular space, which consists of the blood vessels (intravascular space) and the spaces between cells (interstitial space).

Dehydration occurs when the amount of water leaving the body is greater than the amount being taken in. The body is very dynamic and always changing. This is especially true with water in the body. We lose water routinely when we:

breathe and humidified air leaves the body (this can be seen on a cold day when you can see your breath in the air, which is just water that has been exhaled);

sweat to cool the body; and

eliminate waste by urinating or having a bowel movement.

In a normal day, a person has to drink a significant amount of water to replace this routine loss.

The formula for daily fluid requirements depends upon an individual's weight. If you would like to calculate your body weight and daily fluid requirements using the metric system, please use this formula.

For the first 10kg (kilogram) of body weight the daily fluid intake required is 100cc (or mL) per kg.

For the next 10kg of body weight, the fluid required is an additional 50 cc/kg.

For every additional kg of body weight, an additional 10cc/kg is required
This is the basic body requirement. More fluid would be needed to replace excess sweating from exercise or fever, fluid loss from vomiting, and diarrhea or increased urine production.

What causes dehydration?

Dehydration occurs because there is too much water lost, not enough water taken in, or most commonly, a combination of the two.

Diarrhea: Diarrhea is the most common reason for a person to lose excess amounts of water. A significant amount of water can be lost with each bowel movement. Worldwide, more than four million children die each year because of dehydration from diarrhea.

Vomiting: Vomiting can also be a cause of fluid loss. Not only can an individual lose fluid in the vomitus, but it may be difficult to replace water by drinking because of that same nausea and vomiting.

Sweat: The body can lose significant amounts of water in the form of sweat when it tries to cool itself. Whether the body temperature is increased because of working or exercising in a hot environment or because a fever is present due to an infection; the body uses water in the form of sweat to cool itself. Depending upon weather conditions, a brisk walk may generate up to 16 ounces of sweat (a pound of water) an hour to allow body cooling, and that water needs to be replaced by the thirst mechanism signaling the person to drink fluids.

Diabetes: In people with diabetes, elevated blood sugar levels cause sugar to spill into the urine and water then follows, which may cause significant dehydration. For this reason, frequent urination and excessive thirst are among the early symptoms of diabetes.

Burns: The skin acts as a protective barrier for the body and is also responsible for regulating fluid loss. Burn victims become dehydrated because the damaged skin cannot prevent fluid from seeping out of the body. Other inflammatory diseases of the skin such as toxic epidermal necrolysis, also may be associated with significant fluid loss.

Inability to drink fluids: The inability to drink adequately is the other potential cause of dehydration. Whether it is the lack of availability of water, intense nausea with or without vomiting, or the lack of strength to drink, this, coupled with routine or extraordinary water losses can compound the degree of dehydration.

What are the signs and symptoms of dehydration?
The body's initial responses to dehydration are thirst to increase water intake, and decreased urine output to try to conserve water loss. The urine will become concentrated and more yellow in color.

As the level of water loss increases, more symptoms can become apparent. The following are further signs and symptoms of dehydration.

Dry mouth
The eyes stop making tears
Sweating may stop
Muscle cramps
Nausea and vomiting
Heart palpitations
Lightheadedness (especially when standing)
Weakness
Decreased urine output

The body tries to maintain cardiac output (the amount of blood that is pumped by the heart to the body); and if the amount of fluid in the intravascular space is decreased, the body tries to compensate for this decrease by increasing the heart rate and making blood vessels constrict to try to maintain blood pressure and blood flow to the vital organs of the body. The body shunts blood flow away from the skin to internal organs, for example, the brain, heart, lungs, kidneys, and intestines; causing the skin to feel cool and clammy. This coping mechanism begins to fail as the level of dehydration increases.

With severe dehydration, confusion and weakness will occur as the brain and other body organs receive less blood. Finally, coma, organ failure, and death eventually will occur if the dehydration remains untreated.

This article and more: http://bit.ly/12CbtoU

See Image Larger: http://bit.ly/12Ccq0t

11/18/2013

Any of these look familiar?

11/18/2013

Lactic Acid Is Not Muscles' Foe, It's Fuel: Coaches and personal trainers tell athletes and exercisers that they have to learn to work out at just below their "lactic threshold," that point of diminishing returns when lactic acid starts to accumulate. Some athletes even have blood tests to find their personal lactic thresholds.

But that, it turns out, is all wrong. Lactic acid is actually a fuel, not a caustic waste product. Muscles make it deliberately, producing it from glucose, and they burn it to obtain energy. The reason trained athletes can perform so hard and so long is because their intense training causes their muscles to adapt so they more readily and efficiently absorb lactic acid.

Full New York Times Article Here: http://nyti.ms/1fITPtu

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