Tornadoes

1. Solar flares: intense bursts of radiation emitted from the sun's surface.
2. Coronal mass ejections (CMEs): massive expulsions of plasma and magnetic field from the sun's corona.
3. Solar particle events: high-energy particles released from the sun that can impact satellites and astronauts in space.

Yes, tornadoes can form from thunderstorms that develop within large, moisture-rich clouds. The rotation and updrafts within these storm clouds can create the conditions necessary for tornado development.

The scientific name for tornadoes is "tornado." Tornado is the widely accepted term used by meteorologists and scientists to describe a rapidly rotating column of air that extends from a thunderstorm to the ground.

Tornadoes can damage trees by uprooting them, breaking their trunks, or stripping off their branches. The strong winds associated with tornadoes can exert significant force on trees, causing them to be uprooted or broken. Flying debris carried by the tornado can also damage trees by breaking branches or causing bark to be stripped off.

It was at Highpoint Elementary on May 4th 1978. I was in second grade at the school when the tornado hit that day.

Tornadoes form due to a combination of atmospheric instability, wind shear, and a triggering mechanism like a cold front or thunderstorm. The interaction of these factors can create a rotating column of air that descends from a thunderstorm, leading to the formation of a tornado.

Yes, a super cell thunderstorm can produce more than one tornado simultaneously. Although it's a very rare occurrence. In addition, in rare instances, a tornado may have two or more funnels.

Most tornadoes form from thunderstorms. You need warm, moist air from the Gulf of Mexico and cool, dry air from Canada. When these two air masses meet, they create instability in the atmosphere. A change in wind direction and an increase in wind speed with increasing height creates an invisible, horizontal spinning effect in the lower atmosphere. Rising air within the updraft tilts the rotating air from horizontal to vertical. An area of rotation, 2-6 miles wide, now extends through much of the storm. Most strong and violent tornadoes form within this area of strong rotation.

Meteorologists usually have help from Doppler radars. Therefore, it is possible to detect rotation in a storm system. This rotation indicates a high probability of finding tornadoes in the area. However, meteorologists can also look for favorable conditions. For example, thunderstorms with tornadoes often develop in warm, moist air in advance of eastward-moving cold fronts. However, tornado predictions are still imprecise.

Twisters, also known as tornadoes, come from intense thunderstorms that form within a specific type of cloud called a supercell. These supercells have powerful updrafts and rotating air that can lead to the formation of a tornado under the right atmospheric conditions.

Tornado development begins when wind shear, wind blowing in different directions at different altitudes, starts air rolling horizontally. This horizontally rolling air can then get turned vertical by a thunderstorm. The updraft of the storm then starts rotating as a result, becoming a mesocyclone. Under the right conditions a downdraft can wrap around the mesocyclone, tightening and intensifying it to form a tornado.

A tornado is typically several yards to several hundred yards in diameter.

A hurricane is several hundred miles in diameter.

Different factors are used for each of them, though they do share some in common.

Floods:

Their intensity may be measured either as the rate of water discharge in a stream or height of the surface above flood stage. Discharge rate is used to calculate the expected recurrence rate of a flood. Potential floods are predicted by analyzing how much precipitable moisture (moisture that can fall as rain or snow) is in the atmosphere, and whether the right conditions (e.g. a front) to trigger rain or snowmelt. Analyzing topography is used to predict what areas are at the greatest risk of flooding.

Hurricanes:

Hurricanes are rated into categories based on their sustained wind speeds, which can be used to estimated damage potential. Scientists keep an eye on a number of factors that can either help or hinder a hurricane. They form and strengthen best over very warm ocean water in moist air with little to no wind shear, so the main factors in intensity forecasts for hurricanes are seas surface temperature, humidity, and wind shear. Tracking large scale wind currents and high and low pressure systems allow scientists tor predict the likely path of a hurricane. The behavior of past hurricanes is factored into these predictions. Combined forecast of intensity and path show where a hurricane is likely to hit and how strong it may become.

Tornadoes:

Tornadoes are rated based on wind speed estimates derived from the damage they cause. Like hurricanes and floods, tornadoes and the storms that produce them depend a lot on moisture and temperature. They form best when a cool, dry in mass pushes into a warm, moist one. Wind shear is also important; unlike hurricanes, tornadoes actually need strong wind shear in order to form. Another factor is a layer of stable air called and inversion cap, which can cut both ways; it holds storms back and can prevent them from developing, but when storms do manage to punch through it they be stronger and more likely to produce tornadoes. Short term prediction is also important. The main factor for tornadoes is rotation within a thunderstorm; strong rotation means a very high potential that a tornado will form or has already formed.

Not necessarily. A hole in the clouds in a strong thunderstorm could indicate a downdraft that can help produce a tornado or it could simply mean you're at the edge of the storm. Even if it is the former scenario, there is no guarantee a tornado will form.

Just about. They can occur almost anywhere that gets thunderstorms. Contrary to polular belief tornadoes can and have formed in mountainous areas. A body of water does nothing to stop a tornado. A tornado that moves on to water is called a waterspout.

Tornadoes typically move in a straight path, rather than following the elevation of the terrain. While tornadoes may appear to move uphill or downhill due to changes in the landscape, their movement is determined by the atmospheric conditions that created them.

A marsh does not do anything to affect a tornado's destructive potential, but it can reduce the effects of a hurricane. One of the most destructive parts of the impact of a hurricane is the storm surge, where the winds drive seawater onto land. Marshes reduce the storm surge.

yes, the sky will look either a blueish green or black, the cloud will look either like mountain ranges or they will spin or both, it will be hot or humid then it will get cool fast, it may rain, hail or both, it might not even rain or hail at all, it might sound like a train, jet, or just a constant low rumble kindove like thunder, but constant,and it will be really windy, and make sure that if u have a basement go there, or if you have a bathtub in the middle of your house go there with blankets and pillows and maybe for extra protection put a matress over you too if u have time but u will most likely not have enought time to drag a matress in the bathroom..

That type of tornado would be classified as an EF3 to EF5 on the Enhanced Fujita Scale. These tornadoes are capable of causing severe destruction to well-built structures, lifting cars, and completely destroying buildings with weak foundations. The wind speeds in these tornadoes can exceed 136 mph, causing widespread devastation along their paths.

Tornadoes are often accompanied by severe thunderstorms, which can bring heavy rain as well. However, the rain associated with tornadoes is typically localized to the immediate vicinity of the tornado, rather than widespread.

The 1974 Xenia tornado was classified as an F5 on the Fujita scale and had a path width of approximately 1,300 yards (1.2 km) at its widest point. It caused widespread devastation in the town of Xenia, Ohio, and was one of the deadliest tornadoes in U.S. history.

A whirlpool is virtually any vortex that forms in water, usually sucking water inward and downward. They usually result either from a draining body of water, usually man made, or from interactions between flowing water and underwater features.

A tsunami is a large ocean wave or series of waves typically triggered by an underwater earthquake or landslide. Less frequently they can be caused by a volcanic eruption or meteor impact. They are not like regular waves, which wash in and out in a few seconds, but come as massive surges of water that keep coming in for several minutes. Like whirlpools, tsunamis are not weather related.

A cyclone is a large scale, rotating low pressure weather system in the atmosphere. The rotating air is drawn inwards and upwards. A typical cyclone is several hundred miles across. They can bring thunderstorms, rain, and/or snow depending on the type, season, and intensity. Some may also bring strong wind, but not always. There are three main types of cyclone: tropical, mid-latitude (also called extratropical), and polar.

Typhoons and hurricanes are essentially the same thing, both falling under the category of tropical cyclones. They are defined as tropical cyclones with sustained winds of at least 74 mph (119 km/h). The only difference is that such a storm in the Atlantic or eastern Pacific is called a hurricane, while one in the western Pacific (west of the International Date Line) is called a typhoon.

A tornado is a violently rotating vortex of air extending from the base of a thunderstorm to the ground. Tornadoes share some characteristics with cyclones, such as cyclonic rotation. However while cyclones are independent weather systems hundreds of miles across tornadoes are dependent on a parent thunderstorm and are rarely over a mile wide. This means that tornadoes are actually quite small in weather terms. Addition, while not all cyclones are violent or severe, a tornado is violent by definition.

No. A tornado produces the steepest pressure gradient of any weather phenomenon. An intense mid-latitude cyclone might have an overall pressure deficit comparable to a weak tornado, but that pressure gradient is spread out over several hundred miles. A tornado produces at least that much of a pressure drop over only a few hundred feet.

Based on storm chaser roger hill,s tornadoes 58 degrease is about the coolest tempture that a tornado could hit in. Though there has been other rumers that tornadoes have struck even when it was cooler. No one really know,s for sure.

The NWS shows ground temps as low as 36; the air above the ground can be much more humid and warmer. So that will influence the formation more than the actual ground temp.