Toyvo2
x = 4 - 6 t2
Speed = (dx/dt) = - 12 t
Speed = 0 when t = 0
x(0) = 4
The particle stops at [ t = 0 ], located at [ x = 4 ].
The physical reality is: The particle started at [ x = 4 ], and once it started moving, it never stopped.
Wiki User
∙ 14y agoThe amplitude of the Simple Harmonic Motion is 0.05.
i
That would besqrt[ (x80 - x0)2 + (y80 - y0)2 ) at an angle of tan-1 (y80 - y0) / (x80 - x0)or(x80 - x0) i + (y80 - y0) j
acceleration.
On an analog clock, there is one 5 that is always apparent.On a digital clock, it depends whether or not seconds are displayed. If not, the hours position shows 5 twice per day, the tens of minutes position shows 5 once per hour or 24 times per day, and the minutes position shows 5 six times per hour, which is 144 times per day.2 times/day + 24 times/day + 144 times/day = 170 times/dayIf seconds are displayed, in addition to the 170 times/day you have in the tens of seconds position a 5 once per minute, which is 1440 (60 * 24) times per day, and in the seconds position you have a 5 six times per minute, which is 8640 (1440 * 6) times per day.170 times/day + 1440 times/day + 8640 times/day = 10,250 times/day
To find the new coordinates of the particle after 3 seconds, we need to integrate the acceleration function twice. Given the force function F = 4i + 8j + 10k, we can find the acceleration using Newton's second law (F = ma) and then integrate it twice to find the position function. The final position coordinates can be determined by plugging in t=3 seconds into the position function.
To determine the velocity of a moving object at a specific time, you would need the object's position function or acceleration function. If you have the position function, you can differentiate it to get the velocity function and then substitute t=5 seconds. If you have the acceleration function, integrate it with respect to time to get the velocity function and then substitute t=5 seconds.
You're an idiot.
it's answer "c"
What is the position of the ball at 7.5 seconds
From the observer's perspective, due to time dilation effects at high speeds, the pion would exist for approximately 0.000000041 seconds.
The distance, expressed in inches, is(1.2) x (the particle's average speed, in feet per minute) .
The answer will depend on its acceleration.
To find the displacement from 2 seconds to 6 seconds, you need to calculate the change in position of the object during that time interval. This can be done by subtracting the position of the object at 2 seconds from its position at 6 seconds. The result will give you the displacement of the object during that time period.
The period of a particle is the inverse of its frequency. Therefore, for a particle with a frequency of 315 Hz, the period can be calculated as 1/315 Hz, which equals 0.00317 seconds.
2.18J
10m