Electric Flux through a plane surface
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PHXII01:ELECTRIC CHARGES AND FIELDS

358282 A uniform electrical field \(a\widehat i + b\widehat j\) intersects a surface of area \(A\). What is the flux through this area if the surface lies in \(XZ\) plane?

1 \(Ab\)
2 \(Aa\)
3 \(\frac{{A\left( {ab} \right)}}{{a + b}}\)
4 \(A\sqrt {{a^2} + {b^2}} \)
PHXII01:ELECTRIC CHARGES AND FIELDS

358283 A loop of diameter \(d\) is rotated in a uniform electric field until the position of maximum electric flux is found. The flux in this position is measured to be \(\phi \). What is the electric field strength?

1 \(\frac{{4\phi }}{{\pi {d^2}}}\)
2 \(\frac{{2\phi }}{{\pi {d^2}}}\)
3 \(\frac{\phi }{{\pi {d^2}}}\)
4 \(\frac{{\pi \phi {d^2}}}{4}\)
PHXII01:ELECTRIC CHARGES AND FIELDS

358284 An electric field is given by, \((6 \hat{i}+5 \hat{j}+3 \hat{k}) N / C\). The electric flux through a surface area \(30\,\hat i\;\,{m^2}\) lying in \(Y\,Z - \) plane (in \(SI\) unit) is

1 150
2 60
3 180
4 90
PHXII01:ELECTRIC CHARGES AND FIELDS

358285 A uniform electric field \(E = 2 \times {10^3}N{C^{ - 1}}\) is acting along the positive \(x\)-axis. The flux of this field through a square of \(10\,cm\) side whose plane is parallel to the \(yz\) plane is

1 \(20N{C^{ - 1}}{m^2}\)
2 \(30N{C^{ - 1}}{m^2}\)
3 \(10N{C^{ - 1}}{m^2}\)
4 \(40N{C^{ - 1}}{m^2}\)
PHXII01:ELECTRIC CHARGES AND FIELDS

358282 A uniform electrical field \(a\widehat i + b\widehat j\) intersects a surface of area \(A\). What is the flux through this area if the surface lies in \(XZ\) plane?

1 \(Ab\)
2 \(Aa\)
3 \(\frac{{A\left( {ab} \right)}}{{a + b}}\)
4 \(A\sqrt {{a^2} + {b^2}} \)
PHXII01:ELECTRIC CHARGES AND FIELDS

358283 A loop of diameter \(d\) is rotated in a uniform electric field until the position of maximum electric flux is found. The flux in this position is measured to be \(\phi \). What is the electric field strength?

1 \(\frac{{4\phi }}{{\pi {d^2}}}\)
2 \(\frac{{2\phi }}{{\pi {d^2}}}\)
3 \(\frac{\phi }{{\pi {d^2}}}\)
4 \(\frac{{\pi \phi {d^2}}}{4}\)
PHXII01:ELECTRIC CHARGES AND FIELDS

358284 An electric field is given by, \((6 \hat{i}+5 \hat{j}+3 \hat{k}) N / C\). The electric flux through a surface area \(30\,\hat i\;\,{m^2}\) lying in \(Y\,Z - \) plane (in \(SI\) unit) is

1 150
2 60
3 180
4 90
PHXII01:ELECTRIC CHARGES AND FIELDS

358285 A uniform electric field \(E = 2 \times {10^3}N{C^{ - 1}}\) is acting along the positive \(x\)-axis. The flux of this field through a square of \(10\,cm\) side whose plane is parallel to the \(yz\) plane is

1 \(20N{C^{ - 1}}{m^2}\)
2 \(30N{C^{ - 1}}{m^2}\)
3 \(10N{C^{ - 1}}{m^2}\)
4 \(40N{C^{ - 1}}{m^2}\)
PHXII01:ELECTRIC CHARGES AND FIELDS

358282 A uniform electrical field \(a\widehat i + b\widehat j\) intersects a surface of area \(A\). What is the flux through this area if the surface lies in \(XZ\) plane?

1 \(Ab\)
2 \(Aa\)
3 \(\frac{{A\left( {ab} \right)}}{{a + b}}\)
4 \(A\sqrt {{a^2} + {b^2}} \)
PHXII01:ELECTRIC CHARGES AND FIELDS

358283 A loop of diameter \(d\) is rotated in a uniform electric field until the position of maximum electric flux is found. The flux in this position is measured to be \(\phi \). What is the electric field strength?

1 \(\frac{{4\phi }}{{\pi {d^2}}}\)
2 \(\frac{{2\phi }}{{\pi {d^2}}}\)
3 \(\frac{\phi }{{\pi {d^2}}}\)
4 \(\frac{{\pi \phi {d^2}}}{4}\)
PHXII01:ELECTRIC CHARGES AND FIELDS

358284 An electric field is given by, \((6 \hat{i}+5 \hat{j}+3 \hat{k}) N / C\). The electric flux through a surface area \(30\,\hat i\;\,{m^2}\) lying in \(Y\,Z - \) plane (in \(SI\) unit) is

1 150
2 60
3 180
4 90
PHXII01:ELECTRIC CHARGES AND FIELDS

358285 A uniform electric field \(E = 2 \times {10^3}N{C^{ - 1}}\) is acting along the positive \(x\)-axis. The flux of this field through a square of \(10\,cm\) side whose plane is parallel to the \(yz\) plane is

1 \(20N{C^{ - 1}}{m^2}\)
2 \(30N{C^{ - 1}}{m^2}\)
3 \(10N{C^{ - 1}}{m^2}\)
4 \(40N{C^{ - 1}}{m^2}\)
PHXII01:ELECTRIC CHARGES AND FIELDS

358282 A uniform electrical field \(a\widehat i + b\widehat j\) intersects a surface of area \(A\). What is the flux through this area if the surface lies in \(XZ\) plane?

1 \(Ab\)
2 \(Aa\)
3 \(\frac{{A\left( {ab} \right)}}{{a + b}}\)
4 \(A\sqrt {{a^2} + {b^2}} \)
PHXII01:ELECTRIC CHARGES AND FIELDS

358283 A loop of diameter \(d\) is rotated in a uniform electric field until the position of maximum electric flux is found. The flux in this position is measured to be \(\phi \). What is the electric field strength?

1 \(\frac{{4\phi }}{{\pi {d^2}}}\)
2 \(\frac{{2\phi }}{{\pi {d^2}}}\)
3 \(\frac{\phi }{{\pi {d^2}}}\)
4 \(\frac{{\pi \phi {d^2}}}{4}\)
PHXII01:ELECTRIC CHARGES AND FIELDS

358284 An electric field is given by, \((6 \hat{i}+5 \hat{j}+3 \hat{k}) N / C\). The electric flux through a surface area \(30\,\hat i\;\,{m^2}\) lying in \(Y\,Z - \) plane (in \(SI\) unit) is

1 150
2 60
3 180
4 90
PHXII01:ELECTRIC CHARGES AND FIELDS

358285 A uniform electric field \(E = 2 \times {10^3}N{C^{ - 1}}\) is acting along the positive \(x\)-axis. The flux of this field through a square of \(10\,cm\) side whose plane is parallel to the \(yz\) plane is

1 \(20N{C^{ - 1}}{m^2}\)
2 \(30N{C^{ - 1}}{m^2}\)
3 \(10N{C^{ - 1}}{m^2}\)
4 \(40N{C^{ - 1}}{m^2}\)