Start Searching the Answers
The Internet has many places to ask questions about anything imaginable and find past answers on almost everything.
The Question & Answer (Q&A) Knowledge Managenet
The Internet has many places to ask questions about anything imaginable and find past answers on almost everything.
Terms in this set (4)
Terms in this set (5)
Respiratory insufficiency refers to conditions that reduce your body’s ability to perform gas exchange, including: Chronic Obstructive Pulmonary Disease (COPD): a progressive lung disease that includes emphysema and chronic bronchitis. Asthma and rare genetic conditions, such as cystic fibrosis, can also lead to COPD.
Terms in this set (7)
The first phase is called inspiration, or inhaling. When the lungs inhale, the diaphragm contracts and pulls downward. At the same time, the muscles between the ribs contract and pull upward. This increases the size of the thoracic cavity and decreases the pressure inside.
When you breathe in, or inhale, your diaphragm contracts and moves downward. This increases the space in your chest cavity, and your lungs expand into it. The muscles between your ribs also help enlarge the chest cavity. They contract to pull your rib cage both upward and outward when you inhale.
Boyle’s law is important because it tells us about the behavior of gasses. It explains, with certainty, that the pressure and volume of gas are inversely proportional to one another. So, if you push on gas, its volume becomes smaller and the pressure becomes higher.
Why It Matters We can breathe air in and out of our lungs because of Boyle’s law. According to Boyle’s law, if a given amount of gas has a constant temperature, increasing its volume decreases its pressure, and vice-versa. When you inhale, muscles increase the size of your thoracic (chest) cavity and expand your lungs.
Boyle’s law explains that pressure and volume are always inversely proportional at a given temperature of a gas. It explains that when the volume of the lung increases during inspiration, the pressure in the lung will decrease. This causes air at atmospheric pressure to rush in and fill the lung.
alveoli
One clinical application of the ideal gas law is in calculating the volume of oxygen available from a cylinder. This is a useful calculation when determining the size and number of cylinders needed to transfer a ventilated patient, though care must be taken to account for the oxygen consumed in driving the ventilator.
You can observe a real-life application of Boyle’s Law when you fill your bike tires with air. When you pump air into a tire, the gas molecules inside the tire get compressed and packed closer together. This increases the pressure of the gas, and it starts to push against the walls of the tire.
What are some examples of the gas laws in action in everyday life? Charles’s Law: Doubling the temperature of a gas doubles its volume, as long as the pressure of the gas and the amount of gas isn’t changed. A football inflated inside and then taken outdoors on a winter day shrinks slightly.
An example of Boyle’s law in action can be seen in a balloon. Air is blown into the balloon; the pressure of that air pushes on the rubber, making the balloon expand. If one end of the balloon is squeezed, making the volume smaller, the pressure inside increased, making the un-squeezed part of the balloon expand out.