Respuesta :
At start ( t = 0 nanoseconds ) :
E ( t = 0 ) = 2.645 J
E ( t = 1 ) = 6.290 J
E ( t = 1 ) : E ( t = 0 ) = 6.290 : 2.645 = 2.37
Also:
E ( t = 2 ) : E ( t = 1 ) = 14.909 : 6.290 = 2.37
E ( t = 3 ) ; E ( t = 2 ) = 35.335 : 14.909 = 2.37
Therefore, the formula for calculating the energy of the system is:
E ( t ) = 2.645 * 2.37 ^ t
Answer: This is an exponential growth.
E ( t = 0 ) = 2.645 J
E ( t = 1 ) = 6.290 J
E ( t = 1 ) : E ( t = 0 ) = 6.290 : 2.645 = 2.37
Also:
E ( t = 2 ) : E ( t = 1 ) = 14.909 : 6.290 = 2.37
E ( t = 3 ) ; E ( t = 2 ) = 35.335 : 14.909 = 2.37
Therefore, the formula for calculating the energy of the system is:
E ( t ) = 2.645 * 2.37 ^ t
Answer: This is an exponential growth.
Answer: exponential growth
Step-by-step explanation:
From the given table, Energy taken by billionth in 1 sec [tex]E_1=2.654[/tex]
Energy taken by billionth in 2 sec [tex]E_2= 6.290 [/tex]
Energy taken by billionth in 3 sec [tex]E_3= 14.909 [/tex]
Energy taken by billionth in 4 sec [tex]E_4= 35.335 [/tex]
Now, [tex]\frac{E_2}{E_1}=\frac{E_3}{E_2}=\frac{E_4}{E_3}=2.37[/tex]
Since, they all have common ratio = 2.37
Hence there is a exponential growth of billionth.
[In exponential growth the ratio of the rate of change of the variable to its current size remains constant over time ]