358846
The electric field in an electromagnetic wave is given as \(\vec{E}=20 \sin \omega\left(t-\dfrac{x}{c}\right) \hat{j} N C^{-1}\).
Where \(\omega\) and \(c\) are angular frequency and velocity of electromagnetic wave respectively. The energy contained in a volume of \(5 \times {10^{ - 4}}\;{m^3}\) will be
(Given \({\varepsilon _0} = 8.85 \times {10^{ - 12}}{C^2}/N{m^2}\))
358846
The electric field in an electromagnetic wave is given as \(\vec{E}=20 \sin \omega\left(t-\dfrac{x}{c}\right) \hat{j} N C^{-1}\).
Where \(\omega\) and \(c\) are angular frequency and velocity of electromagnetic wave respectively. The energy contained in a volume of \(5 \times {10^{ - 4}}\;{m^3}\) will be
(Given \({\varepsilon _0} = 8.85 \times {10^{ - 12}}{C^2}/N{m^2}\))
358846
The electric field in an electromagnetic wave is given as \(\vec{E}=20 \sin \omega\left(t-\dfrac{x}{c}\right) \hat{j} N C^{-1}\).
Where \(\omega\) and \(c\) are angular frequency and velocity of electromagnetic wave respectively. The energy contained in a volume of \(5 \times {10^{ - 4}}\;{m^3}\) will be
(Given \({\varepsilon _0} = 8.85 \times {10^{ - 12}}{C^2}/N{m^2}\))
358846
The electric field in an electromagnetic wave is given as \(\vec{E}=20 \sin \omega\left(t-\dfrac{x}{c}\right) \hat{j} N C^{-1}\).
Where \(\omega\) and \(c\) are angular frequency and velocity of electromagnetic wave respectively. The energy contained in a volume of \(5 \times {10^{ - 4}}\;{m^3}\) will be
(Given \({\varepsilon _0} = 8.85 \times {10^{ - 12}}{C^2}/N{m^2}\))
358846
The electric field in an electromagnetic wave is given as \(\vec{E}=20 \sin \omega\left(t-\dfrac{x}{c}\right) \hat{j} N C^{-1}\).
Where \(\omega\) and \(c\) are angular frequency and velocity of electromagnetic wave respectively. The energy contained in a volume of \(5 \times {10^{ - 4}}\;{m^3}\) will be
(Given \({\varepsilon _0} = 8.85 \times {10^{ - 12}}{C^2}/N{m^2}\))