# description
Keep Ai Eafc TTS Computer AI Voice On Your Home Screen

# shortcuts[].name
Hello, I'm a text to speech system. Here's an example of my voice reading this message.

# shortcuts[].short_name
Hello, I'm a text to speech system. Here's an example of my voice reading this message.

# shortcuts[].description
Play Hello, I'm a text to speech system. Here's an example of my voice reading this message.

# shortcuts[].name
"Hello and welcome to another amazing game of discus throwing! I'm Derek Rae, joined alongside me for commentary current president Donald Trump. Good evening Donald"

# shortcuts[].short_name
"Hello and welcome to another amazing game of discus throwing! I'm Derek Rae, joined alongside me for commentary current president Donald Trump. Good evening Donald"

# shortcuts[].description
Play "Hello and welcome to another amazing game of discus throwing! I'm Derek Rae, joined alongside me for commentary current president Donald Trump. Good evening Donald"

# shortcuts[].name
Jamaica's Stona ismaking his way onto the pitch, the crowd roaring with anticipation… stay with us, because the throw is just moments away

# shortcuts[].short_name
Jamaica's Stona ismaking his way onto the pitch, the crowd roaring with anticipation… stay with us, because the throw is just moments away

# shortcuts[].description
Play Jamaica's Stona ismaking his way onto the pitch, the crowd roaring with anticipation… stay with us, because the throw is just moments away

# shortcuts[].name
Thats right Donald. Jamaica's Stona ismaking his way onto the pitch, the crowd roaring with anticipation… stay with us, because the throw is just moments away

# shortcuts[].short_name
Thats right Donald. Jamaica's Stona ismaking his way onto the pitch, the crowd roaring with anticipation… stay with us, because the throw is just moments away

# shortcuts[].description
Play Thats right Donald. Jamaica's Stona ismaking his way onto the pitch, the crowd roaring with anticipation… stay with us, because the throw is just moments away

# shortcuts[].name
OH! LOOK AT THAT DONALD! A NEW OLYMPIC RECORD! Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 km/h, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].short_name
OH! LOOK AT THAT DONALD! A NEW OLYMPIC RECORD! Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 km/h, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].description
Play OH! LOOK AT THAT DONALD! A NEW OLYMPIC RECORD! Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 km/h, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].name
Oh look at that Donald. A new olympic record. Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 km/h, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].short_name
Oh look at that Donald. A new olympic record. Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 km/h, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].description
Play Oh look at that Donald. A new olympic record. Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 km/h, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].name
Oh look at that Donald. A new olympic record. Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 kilometers per hour, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].short_name
Oh look at that Donald. A new olympic record. Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 kilometers per hour, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].description
Play Oh look at that Donald. A new olympic record. Let’s break down the physics behind this discus throw. The athlete spins and releases the discus at about 89.2 kilometers per hour, which converts to 24.78 meters per second, at an angle of 34.75 degrees. The discus leaves his hand from roughly 2 meters above the ground, and once it leaves his hand, the motion is completely controlled by physics.

# shortcuts[].name
First, we converted the launch speed from 89.2 kilometers per hour to 24.78 meters per second so we could use standard physics units. The discus was released at an angle of 34.75 degrees from a height of 2.0 meters above the ground, and we assumed a gravitational acceleration of 9.8 meters per second squared downward with no air resistance. We then separated the initial velocity into horizontal and vertical components. The horizontal velocity was calculated as 20.37 meters per second, and the...

# shortcuts[].short_name
First, we converted the launch speed from 89.2 kilometers per hour to 24.78 meters per second so we could use standard physics units. The discus was released at an angle of 34.75 degrees from a height of 2.0 meters above the ground, and we assumed a gravitational acceleration of 9.8 meters per second squared downward with no air resistance. We then separated the initial velocity into horizontal and vertical components. The horizontal velocity was calculated as 20.37 meters per second, and the...

# shortcuts[].description
Play First, we converted the launch speed from 89.2 kilometers per hour to 24.78 meters per second so we could use standard physics units. The discus was released at an angle of 34.75 degrees from a height of 2.0 meters above the ground, and we assumed a gravitational acceleration of 9.8 meters per second squared downward with no air resistance. We then separated the initial velocity into horizontal and vertical components. The horizontal velocity was calculated as 20.37 meters per second, and the...

# shortcuts[].name
But in the real world, there can still be some sources of error. Factors like air resistance, wind, aerodynamic lift from the spinning discus, and small measurement errors in the angle or speed could change the actual distance of the throw.

# shortcuts[].short_name
But in the real world, there can still be some sources of error. Factors like air resistance, wind, aerodynamic lift from the spinning discus, and small measurement errors in the angle or speed could change the actual distance of the throw.

# shortcuts[].description
Play But in the real world, there can still be some sources of error. Factors like air resistance, wind, aerodynamic lift from the spinning discus, and small measurement errors in the angle or speed could change the actual distance of the throw.