Weather Exit Ticket
| # | Answer |
|---|---|
| 1 | Weather is the day-to-day condition of the atmosphere, while climate is the long-term average pattern of weather in a region. |
| 2 | Temperature, air pressure, and humidity. |
| 3 | A barometer. |
| 4 | An anemometer. |
| 5 | A wind vane, also called a weather vane. |
| 6 | Cirrus clouds. |
| 7 | It tells us how much water vapor is in the air compared with the maximum the air can hold at that temperature. |
| 8 | The temperature at which air becomes saturated and water vapor begins to condense. |
| 9 | Warm air has more kinetic energy, so water molecules stay in the vapor phase more easily and the air can hold more moisture before saturation. |
| 10 | Water heats and cools more slowly than land, so nearby coastlines experience smaller temperature extremes. |
| 11 | Winds form because air moves from areas of high pressure to areas of low pressure due to pressure differences. |
| 12 | Isobars show areas of equal pressure and help identify pressure gradients, which indicate wind strength. |
| 13 | Cloud formation and possible precipitation. |
| 14 | It is the apparent deflection of moving air and water caused by Earth’s rotation. |
| 15 | To the right. |
| 16 | A front is the boundary between two air masses with different temperatures and/or humidity. |
| 17 | A warm front. |
| 18 | Brief heavy rain, thunderstorms, gusty winds, and a rapid drop in temperature. |
| 19 | Cumulonimbus clouds. |
| 20 | A large body of air with relatively uniform temperature and humidity characteristics. |
| 21 | Hot, humid air is unstable and rises easily. As it rises, it cools and condenses, forming tall storm clouds and often thunderstorms. |
| 22 | The Sun. |
| 23 | Sunlight strikes the equator more directly, concentrating energy over a smaller area, while sunlight hits the poles at a lower angle and spreads out more. |
| 24 | Latent heat is energy absorbed or released during a phase change of water. It powers rising air, cloud formation, and storm development. |
| 25 | It releases energy. |
| 26 | 11°C. |
| 27 | The city near 1006 mb, because the larger pressure difference creates a stronger pressure gradient and stronger winds. |
| 28 | It means there is a 70% probability that measurable precipitation will occur in the forecast area during the forecast period. |
| 29 | They help meteorologists observe cloud cover, storm development, and large-scale weather patterns over wide areas. |
| 30 | Radar detects precipitation and can show its location, intensity, and movement. |
| 31 | Because the atmosphere is highly complex and small changes in conditions can grow over time, making exact future conditions harder to predict. |
| 32 | Strong winds are likely because a steep pressure gradient exists. |
| 33 | Warm ocean water supplies heat and moisture to the atmosphere, fueling rising air, condensation, and the release of latent heat that strengthens the storm. |
| 34 | Low vertical wind shear and enough Coriolis effect away from the equator. |
| 35 | They lose their source of warm, moist ocean air and encounter more friction, which reduces storm strength. |
| 36 | Separation of electric charges within the storm cloud and between the cloud and ground. |
| 37 | Air pressure decreases, and temperature generally decreases as altitude increases in the troposphere. |
| 38 | Because it contains most of the atmosphere’s water vapor and is where clouds, storms, and most weather processes occur. |
| 39 | One risk is heat exhaustion or heat stroke. One way to reduce it is to stay hydrated and limit outdoor activity during the hottest hours. |
| 40 | Warmer winters can reduce snowpack, change the timing of spring runoff, increase drought risk, and shift habitats and species distributions, affecting both weather-related water availability and ecosystems. |