6 degrees. There are 360 degrees in a full circle, and therefore for every second the hand moves through one sixtieth of a circle.
An arc second is a measurement of an angle, so you would need to know how far away the object is. From there, there are two ways to proceed: 1. Use a circle with the distance as the radius a. find the degree fraction (degrees/360; there are 3600 arcseconds in 1 degree) b. find the circumference of the circle and multiply by the degree fraction 2. Set up a triangle and use a trigonometric function.
There are 360 degrees in a circle, so if you draw a line and measure 360 degrees round and draw a second line, this second line is on top of the first line.
The calculation is 60 arc seconds X 60 arc minutes X 360 degrees in a full circle. So, there are 1,296,000 arc seconds in a full circle.
It moves 0.1 degrees per second. There are 360 degrees in a full circle - so, every minute that passes, the hand moves six degrees. Thus, every second, the hand moves one tenth of a degree (6 degrees divided by 60).
6 degrees. There are 360 degrees in a full circle, and therefore for every second the hand moves through one sixtieth of a circle.
An arc second is a measurement of an angle, so you would need to know how far away the object is. From there, there are two ways to proceed: 1. Use a circle with the distance as the radius a. find the degree fraction (degrees/360; there are 3600 arcseconds in 1 degree) b. find the circumference of the circle and multiply by the degree fraction 2. Set up a triangle and use a trigonometric function.
An angle is the measurement of two lines drawn from the centre of a circle. A circle is 380 degrees. So in an angle of 90 degrees, one line would be vertical at 0 degrees, and the second line would be horizontal at 90 degrees. So the relationship is that you can't have one without the other.
There are 360 degrees in a circle, so if you draw a line and measure 360 degrees round and draw a second line, this second line is on top of the first line.
The calculation is 60 arc seconds X 60 arc minutes X 360 degrees in a full circle. So, there are 1,296,000 arc seconds in a full circle.
It is certainly possible. All you need is a the second circle to have a radius which is less than 20% of the radius of the first.
To convert meters per second to degrees per second, you need to know the radius of the circle or the distance from the center of rotation. First, calculate the angular velocity in radians per second by dividing the linear velocity in meters per second by the radius in meters. Then, convert the angular velocity from radians per second to degrees per second by multiplying by 180/π since 1 radian is equal to 180/π degrees.
It moves 0.1 degrees per second. There are 360 degrees in a full circle - so, every minute that passes, the hand moves six degrees. Thus, every second, the hand moves one tenth of a degree (6 degrees divided by 60).
It's actually 2(pi), you technically need to say 360 degrees. I believe we defined it to be that, but you can prove that it's 360 degrees: Draw a diameter. Draw a second diameter perpendicular to the first. You now have four right angles. Right angles measure 90 degrees. 90 * 4 = 360 Hence, there are 360 degrees in the circle.
Multiply the first fraction by the reciprocal of the second. That is, flip the second fraction over and then multiply the two.
It could be as little as just over zero (from a fraction of a second before noon to a fraction of a second after) to as much as 12 hours (from a fraction of a second after midnight to a fraction of a second after noon).
Oh, that's a happy little question! Since there are 60 seconds in a minute, and a full circle is 360 degrees, the second hand on a clock moves at 6 degrees per second. Isn't that just a delightful little detail to know? Just imagine that gentle movement bringing peace and tranquility to your day.