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Q2 I notice that when the water is not boiling the two arrows are the different lengths with the vapor pressure being larger, however when the water starts boiling the pressure becomes the same and when on mt Everest they become the same length but they are smaller.
Q3 Water boils at a lower temperature on Mount Everest because the atmosphere does not exert as much pressure on the water making the temperature lesser.

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I think that water boils at a lower temp at high elevation because there is less pressure applied to the molecules. The more pressure applied, the more energy needed to allow the water to boil.

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Both arrows have turned into a shorter length which means that the pressures much lower which would turn into a low boiling point.

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The water boils at a lower temperature in mount Everest due to the altitude. When the altitude increases, the pressure decreases which leads to a lower boiling point because less vapor pressure is needed.

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Water boils at a lower temperature at Mt Everest because of the different atmospheric pressure in the mountains.

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Q3: The two arrows are the same length, so it means there is an equal amount of force or distribution of air pressure and water vapor. It also probably means that there's more space for molecules to move around because of this, and therefore it takes less effort/energy to make them move.

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Because there is less air pressure on Mount Everest, water boils at a lower temperature, allowing the water molecules to move more freely and boil faster.

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When the altitude is higher, there is less atmospheric pressure so less vapor pressure is needed for water to boil.

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I think is boils at a lower temperature because at the higher alititude the water is under more pressure

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Water boils at a low temperature when at a higher elevation because there is less air pressure, making it easier for the water to boil.

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I think water boils at a low temp on Mt Everest because the atmospheric and vapor pressure has decreased (yet they remain equal to each other).

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Water boils at a lower temperature on Mount Everest because its altitude is higher meaning the boiling point of water is lower. There is also less air pressure on the water which lets the molecules move faster.

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The water boils at a lower temperature at Mt. Everest because the air pressure is also lower in that altitude. This is due to vapor pressure being equal to the air pressure and boilng point is similar to the temperature of vapor pressure.

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Based on the picture, water boils at a lower temperature on mount Everest because there is less air pressure on the water, allowing the water molecules to move more freely and boil faster.

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Water boils at a low temperature on Mount Everest because the overall pressure. is lower/has decreased when it is above sea level.

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Water boils at a low temperature because it takes less vapor and atmospheric pressure to reach boiling point when you're in extremely cold conditions

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for the lower pressure (mount Everest) the arrows get shorter indicating its a lower pressure. I think water can boil at a low temperature on mount Everest because the lower the pressure, the easier it is for the water to boil.

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The arrows are pretty much the same length which means that the atmospheric pressure basically equals the vapor pressure

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water boils @ a lower temp on mt Everest b/c its up in the mountains and not below surface

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Since the arrows are equal in length, it represents a equilibrium of pressure. But both arrows have also gotten shorter representing that overall the pressure is much lower which would in turn lead to a lower boiling point.

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When the water is boiling, the arrows are the same and when the water is at room temperature, they are not the same length. There is more pressure when it is not boiling

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Q3: When the elevation increases, the atmospheric pressure decreases, so less vapor pressure is needed for water to boil.

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The length of the two arrows is the same when the water boiling. This shows a same amount atmospheric pressure

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The arrows represent vapor pressure and atmospheric pressure. Lower pressure equals also results in lower vapor pressure from the water.

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Q2: When water is boiling there is more vapor pressure than when it is not boiling. But, when the elevation increases, the atmospheric pressure decreases, so less vapor pressure is needed for water to boil.

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As atmospheric pressure goes in vapor pressure comes out and when the water is boiling the amount of pressure is the same and when the water isn't boiling the amount of pressure is different

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Q3: The orange arrow represents atmospheric pressure and the blue arrow represents the vapor pressure of the water.  

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Q3: The orange arrow represents atmospheric pressure and the blue arrow represents the vapor pressure of the water.  

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Consider, Mt Everest. Why do you think the water boils at a lower temperature at Mt. Everest?

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I notice that the arrows are alot biiger making it more dramatic

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When the water is boiling the arrows are equal (vapor pressure and atmospheric pressure). When the water is room temp the blue arrow is lower because the water won't vaporize (turn into gas). Arrows are both low on Mount Everest because there is lower pressure.

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The atmospheric pressure basically matches the vapor pressure, and there is less atmospheric pressure at higher elevations, so when water is boiling at a lower pressure, the atmospheric pressure is lower, and thus the vapor pressure is lower.

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A2: When water is at room temperature, the blue arrow is shorter than the orange arrow, when the water is boiling, the blue and orange arrows are equal in length to show the relationship between atmospheric pressure and water vapor

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The relationship between the arrows is that at different attitudes, the arrows are always in the same spot as the other. This is due to the vapor pressure being equal to the air pressure.

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In the picture to the left, there is more atmospheric pressure and vapor pressure of the water than in the picture to the right. Lower pressure also results in lower vapor pressure from the water. In addition, when the water is boiling, there is equal pressure from both the arrows, but when the water is not boiling, the arrows are different lengths.

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When water is boiling the arrows are the same length but when it isn't boiling they are different lengths. This represents an equal amount.

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A2) I notice the blue arrow is larger when the water is boiling and the arrow is smaller when it is at room temperature and mount everest. The air pressure arrow seems to stay the same when the water is at sea level however when it is at mount everest the air pressure arrow is smaller.

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When water is boiling the atmospheric pressure and vapor pressure is the same. In higher altitudes, the pressure of both the atmosphere and vapor is still the same but there is less pressure.

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When water is boiling, the length of the two arrows is the same, to represent an equal amount of vapor pressure and atmospheric pressure.

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the higher the blue arrow goes bubbles form

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The two arrows are vapor pressure and atmospheric pressure. The boiling point depends on the pressure which shows that they are in a direct relationship.

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When water is boiling, the length of the 2 arrows is the same representing a equilibrium of pressure.

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Q2: The orange arrow represents atmospheric pressure and the blue arrow represents the vapor pressure of the water. 

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Q2: The orange arrow represents atmospheric pressure and the blue arrow represents the vapor pressure of the water. 

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What do you notice is the relationship between the arrows in the diagram of water at room temperature and water at boiling temperature?

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If the altitude is increasing that means the boiling point is decreasing. This is because the pressure changes with altitude

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Due to the differences of air pressure at different altitudes, the higher you get the lower the boiling point gets.

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As the altitude increases the water's boiling point decreases. This is because altitude affects the boiling point of water.

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Since the temperature differs at different altitudes, the boiling point varies as well to cope with either the cold weather or the hot weather

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The relationship between the elevation and boiling point is that the higher the altitude, the lower the boiling point of the water is. That is because of the different pressure in each altitude.

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As the altitude increases, the boiling point decreases. There is less air pressure at high altitudes meaning less air molecules. Less air molecules give water molecules more space to move around. Since water boils and water molecules move a lot due to heat, the temperature does not need to be as high in order to get the molecules moving a lot, because the increase of space allows the molecules to do so and boil faster. It is also generally more cold in higher altitudes.

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hannah.  as alt increases the boiling point of water decreases. this is because of the different alts in different temps

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hannah.  as alt increases the boiling point of water decreases. this is because of the different alts in different temps

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Because the pressure changes with altitude, water boils at different temperatures at different altitudes.

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higher altitude means the water boils at a lower temperature because at different altitudes theres different temperatures.

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The higher the altitude, the lower the temperature needed to boil water. This is due to decreased atmospheric pressure at higher altitudes that change the way molecules move.

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Q1:The higher the altitude, the lower the boiling point of water is. I think that this occurs because the air pressure in high altitude is less than at lower altitudes which allows the water to boil easier.
Q2: When the water is not boiling, the arrows aren't equal but while the water is boiling, the arrows are equal which demonstrates equilibrium.
Q3: Water boils at a low temperature on Mount Everest because since there is less pressure on the water molecules, it makes it easier for them to evaporate at lower temperatures.

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The higher the altitude is, the lower the boiling point of water is. This is because of the atmospheric pressures in places iwth different altitudes

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Because of the difference in air pressure at different altitudes, the higher the altitude the lower the boiling point of the water will be.

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As altitude increases, the boiling point of water decreases, and as altitude decreases, the boiling point of water increases. I think this is because of the difference of density and pressure of air depending on altitude.

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As elevation increases atmospheric pressure decreases, which causes the boiling point to decrease in temperature.

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The higher the altitude the lower the boiling point. This might be due to the air pressure being lower in higher altitudes meaning the boiling point also being lower.

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I feel the relationship between altitude and boiling water would be based on the amount of pressure in the air, which differs depending on what altitude the water is boiling at. High altitude has less air pressure meaning the water would boil at a lower rate.

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The higher the elevation means heated water reaches its boiling point more quickly because of the decreased atmospheric pressure.

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When altitude decreases, water boils at lower temperatures. This is because of the different amounts of pressure in the air.

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Q1: What is the relationship between altitude and boiling point of water? Why do you think this is? 

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Q1: What is the relationship between altitude and boiling point of water? Why do you think this is? 

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Respond in your own post!

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As the altitude increases, the boiling point of water decreases. This is because of the difference in air pressure at the different altitudes.

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Water boils at different temperatures at different altitudes because when you change the altitude, the pressure changes.

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Water boils at different temperatures at different altitudes because when you change the altitude, the pressure changes.

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The higher the altitude, the lower the temperature water boils at. This is due to the difference in air pressure at the various altitudes.

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Use these sentence starters to help frame your peer feedback: 

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Use these sentence starters to help frame your peer feedback: 

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at higher altitudes the air is less dense and at lower molecules the air is more dense