If you invest \( \$ 1000 \) for \( t \) years at \( 6.72 \% \) compounded at the frequencies below, find the following. (a) Suppose you compound at \( 6.72 \% \) monthly. i) Report an expression equivalent to the value of \( \$ 1000 \) invested for \( t \) years at \( 6.72 \% \) compounded monthly by completing the box with the growth factor if compounded annually. 1000( \( \square \) Number \( t \) (Round to \( \underline{4} \) decimal places.) ii) Report the effective annual rate: \( \square \) Number \% (Round to \( \underline{2} \) decimal places.) (b) Suppose you compound at \( 6.72 \% \) continuously. i) You would expect \( 6.72 \% \) compounded continuously to give a \( \square \) Click for List yield than what is given in part (a). ii) Complete the boxes below to report the expression for the value of \( \$ 1000 \) invested for \( t \) years at \( 6.72 \% \) compounded continuously and the equivalent growth factor if compounded annually. \[ \begin{array}{l} 1000 e^{(\text {Number } t)} \\ \approx 1000(\text { Number })^{t} \end{array} \] (Round to \( \mathbf{4} \) decimal places.) iii) Report the effective annual rate: \( \square \) Number \% (Round to \( \underline{2} \) decimal places.) (c) Complete the boxes to summarize: i) From part (a) we have that \( 6.72 \% \) compounded monthly is equivalent to \( \square \) Number \( \% \) compounded annually. ii) From part (b) we have that \( 6.72 \% \) compounded continuously is equivalent to \( \square \) Number \( \% \) compounded annually.
Solución de inteligencia artificial de Upstudy
Responder
Solución

¡Inicia sesión para desbloquear respuestas gratis!
Una plataforma de aprendizaje en la que confían millones de estudiantes y profesores reales.

Respondido por UpStudy AI y revisado por un tutor profesional
Mind Expander
When you invest using compound interest, the formula to calculate the future value is based on the number of compounding periods. For monthly compounding at an interest rate of \( 6.72\% \), your growth factor to compare annually is calculated as \( \left(1 + \frac{0.0672}{12}\right)^{12} \), which gives you a growth factor of approximately \( 1.0702 \) when rounded to four decimal places. This means that your investment grows by an equivalent annual growth rate of \( 7.02\% \). For continuous compounding, you would expect a slightly higher yield due to the nature of continuous growth. The formula for continuous compounding is \( 1000 e^{(0.0672 t)} \), which can be approximated to \( 1000(1.0695)^{t} \) when rounded to four decimal places. The effective annual rate for continuous compounding at \( 6.72\% \) works out to be around \( 6.97\% \). Thus, the continual compounding not only offers more frequent interest calculation but also ultimately leads to a higher return on investment compared to monthly compounding!
preguntas relacionadas
