Hail storms happen when strong updrafts in thunderstorms carry raindrops high into the cold upper atmosphere, where they freeze into ice pellets. Factors that contribute to hail formation include strong updrafts, a freezing level high in the atmosphere, and the presence of supercooled water droplets.
Factors that contribute to the formation and intensity of a hurricane include warm ocean waters, moist air, low wind shear, and a distance of at least 300 miles from the equator. Additionally, the Earth's rotation (Coriolis effect) plays a role in the development of hurricanes by causing the storms to spin.
Conduction plays a role in transferring heat in the atmosphere, influencing weather patterns. For example, conduction helps warm air near the surface rise, creating convection currents that lead to cloud formation and precipitation. Additionally, differences in conduction between land and water surfaces contribute to the formation of sea breezes and other local weather phenomena.
Factors of tornado formation include temperature, humidity, and instability, convective inhibition and the presence of a storm system, all of which influence the formation of the thunderstorms needed to produce tornadoes. A final factor is wind shear, which gives these storms the ability to produce tornadoes.
Storms are getting worse due to a combination of factors, including climate change leading to warmer ocean temperatures and more moisture in the atmosphere, which can fuel stronger and more intense storms. Additionally, factors like deforestation and urbanization can contribute to increased flood risks during storms.
A common factor associated with most severe storms is the presence of unstable atmospheric conditions that promote the development of intense convection and powerful updrafts. This instability, along with factors like wind shear and high moisture levels, can contribute to the formation of severe weather events such as thunderstorms, tornadoes, and severe hurricanes.
Storms are created when warm, moist air rises and cools, leading to condensation of water vapor and the formation of clouds. As the air continues to rise and cool, it can create unstable atmospheric conditions that result in thunderstorms, hurricanes, or tornadoes, depending on the specific circumstances and location. Various factors such as temperature gradients, humidity levels, and wind patterns all contribute to the formation and intensity of storms.
Very few land masses and the land masses being so spread out allow formation of the most powerful storms.
Factors that contribute to the formation and intensity of a hurricane include warm ocean waters, moist air, low wind shear, and a distance of at least 300 miles from the equator. Additionally, the Earth's rotation (Coriolis effect) plays a role in the development of hurricanes by causing the storms to spin.
cold fronts
Big waves are typically created by strong winds blowing over a large distance of open water, called fetch. The longer the fetch and the stronger the winds, the bigger the waves. Other factors such as storms, tides, and underwater topography can also contribute to the formation of big waves.
Conduction plays a role in transferring heat in the atmosphere, influencing weather patterns. For example, conduction helps warm air near the surface rise, creating convection currents that lead to cloud formation and precipitation. Additionally, differences in conduction between land and water surfaces contribute to the formation of sea breezes and other local weather phenomena.
rain storms thunder storms snow storms sand storms dust storms hail storms tornadoes although they are rare
drought, dust storms, and intensive farming
Factors of tornado formation include temperature, humidity, and instability, convective inhibition and the presence of a storm system, all of which influence the formation of the thunderstorms needed to produce tornadoes. A final factor is wind shear, which gives these storms the ability to produce tornadoes.
storms happen a lot in the fall
Storms are getting worse due to a combination of factors, including climate change leading to warmer ocean temperatures and more moisture in the atmosphere, which can fuel stronger and more intense storms. Additionally, factors like deforestation and urbanization can contribute to increased flood risks during storms.
Factors that contribute to succession include disturbance events like fire or storms, availability of seeds or propagules, competition for resources among plant species, soil conditions, climate, and the presence of mutualistic relationships with other organisms like mycorrhizal fungi.