![The forbidden energy gap in germanium is 0.7 eV. The wavelength whose absorption is done by germanium is: The forbidden energy gap in germanium is 0.7 eV. The wavelength whose absorption is done by germanium is:](https://haygot.s3.amazonaws.com/questions/2014229_96651_ans_877e1f2ae91e4f98a41ac81831e6f0bd.jpg)
The forbidden energy gap in germanium is 0.7 eV. The wavelength whose absorption is done by germanium is:
![The forbidden energy gap in germanium is 0.7 eV. The wavelength whose absorption is done by germanium is: The forbidden energy gap in germanium is 0.7 eV. The wavelength whose absorption is done by germanium is:](https://haygot.s3.amazonaws.com/questions/464209_210838_ans.png)
The forbidden energy gap in germanium is 0.7 eV. The wavelength whose absorption is done by germanium is:
![Electron removed1 ^st electron2 ^nd electron3 ^rd electron4 ^th electron5 ^th electron6 ^th electronIonization energy(kJ/mole) 733 1,450 7,730 10,538 13,618 18,101 The ionization energies (potentials) for the removal of different electrons from Electron removed1 ^st electron2 ^nd electron3 ^rd electron4 ^th electron5 ^th electron6 ^th electronIonization energy(kJ/mole) 733 1,450 7,730 10,538 13,618 18,101 The ionization energies (potentials) for the removal of different electrons from](https://dwes9vv9u0550.cloudfront.net/images/11324851/ef44f0dd-9db4-4d66-ad03-a61d379b998b.jpg)
Electron removed1 ^st electron2 ^nd electron3 ^rd electron4 ^th electron5 ^th electron6 ^th electronIonization energy(kJ/mole) 733 1,450 7,730 10,538 13,618 18,101 The ionization energies (potentials) for the removal of different electrons from
![The energy gaps (E) between the valence band and conduction band, g for diamond, silicon and germanium are in the order: The energy gaps (E) between the valence band and conduction band, g for diamond, silicon and germanium are in the order:](https://dwes9vv9u0550.cloudfront.net/images/3814136/4bf37008-9801-4a52-96a8-890c029a6684.jpg)
The energy gaps (E) between the valence band and conduction band, g for diamond, silicon and germanium are in the order:
![The forbidden energy gap of Ge is 0.75 eV, the maximum wavelength of incident radiation - producing an electron - hole pair in germanium semiconductor is: The forbidden energy gap of Ge is 0.75 eV, the maximum wavelength of incident radiation - producing an electron - hole pair in germanium semiconductor is:](https://haygot.s3.amazonaws.com/questions/1805149_954461_ans_df1de302b2df469aa75e1b4503df164b.jpg)
The forbidden energy gap of Ge is 0.75 eV, the maximum wavelength of incident radiation - producing an electron - hole pair in germanium semiconductor is:
![Forbidden energy gap of Ge is `0.75eV`, maximum wave length of incident radiation for producing elec - YouTube Forbidden energy gap of Ge is `0.75eV`, maximum wave length of incident radiation for producing elec - YouTube](https://i.ytimg.com/vi/13wfTjlJ4u4/maxresdefault.jpg)
Forbidden energy gap of Ge is `0.75eV`, maximum wave length of incident radiation for producing elec - YouTube
![In germanium crystal, the forbidden energy gap in joule is:A. $1.6 \\times {10^{ - 19}}$B. ZeroC. $1.12 \\times {10^{ - 19}}$D. $1.76 \\times {10^{ - 19}}$ In germanium crystal, the forbidden energy gap in joule is:A. $1.6 \\times {10^{ - 19}}$B. ZeroC. $1.12 \\times {10^{ - 19}}$D. $1.76 \\times {10^{ - 19}}$](https://www.vedantu.com/question-sets/093b4953-d383-4ff2-b0a1-731af8e9eb971104305131714958937.png)
In germanium crystal, the forbidden energy gap in joule is:A. $1.6 \\times {10^{ - 19}}$B. ZeroC. $1.12 \\times {10^{ - 19}}$D. $1.76 \\times {10^{ - 19}}$
![The forbidden energy gap of Ge is 0.75 eV, the maximum wavelength of incident radiation - producing an electron - hole pair in germanium semiconductor is: The forbidden energy gap of Ge is 0.75 eV, the maximum wavelength of incident radiation - producing an electron - hole pair in germanium semiconductor is:](https://dwes9vv9u0550.cloudfront.net/images/5326610/e18d2959-a5f6-43cc-87ff-f084aebbf176.jpg)
The forbidden energy gap of Ge is 0.75 eV, the maximum wavelength of incident radiation - producing an electron - hole pair in germanium semiconductor is:
![PDF] Experimental estimation of the band gap in silicon and germanium from the temperature–voltage curve of diode thermometers | Semantic Scholar PDF] Experimental estimation of the band gap in silicon and germanium from the temperature–voltage curve of diode thermometers | Semantic Scholar](https://d3i71xaburhd42.cloudfront.net/2a991f16c0139e0c55c0f366537e194ea5319683/2-Figure2-1.png)
PDF] Experimental estimation of the band gap in silicon and germanium from the temperature–voltage curve of diode thermometers | Semantic Scholar
![Carbon, silicon and germanium have four valence electrons each. These are characterised by valence and conduction bands separated by energy band gap respectively equal to ${\\left( {{E_g}} \\right)_C},{\\text{ }}{\\left( {{E_g}} \\right)_{Si}}{\\text ... Carbon, silicon and germanium have four valence electrons each. These are characterised by valence and conduction bands separated by energy band gap respectively equal to ${\\left( {{E_g}} \\right)_C},{\\text{ }}{\\left( {{E_g}} \\right)_{Si}}{\\text ...](https://www.vedantu.com/question-sets/17a5ca21-e66a-499e-8737-d5c13918e2f14835090380208633835.png)
Carbon, silicon and germanium have four valence electrons each. These are characterised by valence and conduction bands separated by energy band gap respectively equal to ${\\left( {{E_g}} \\right)_C},{\\text{ }}{\\left( {{E_g}} \\right)_{Si}}{\\text ...
![Electron removed1 ^st electron2 ^nd electron3 ^rd electron4 ^th electron5 ^th electron6 ^th electronIonization energy(kJ/mole) 733 1,450 7,730 10,538 13,618 18,101 The ionization energies (potentials) for the removal of different electrons from Electron removed1 ^st electron2 ^nd electron3 ^rd electron4 ^th electron5 ^th electron6 ^th electronIonization energy(kJ/mole) 733 1,450 7,730 10,538 13,618 18,101 The ionization energies (potentials) for the removal of different electrons from](https://dwes9vv9u0550.cloudfront.net/images/7995954/1cf033b7-f56b-4ff2-a3f0-7c1f3ee13564.jpg)
Electron removed1 ^st electron2 ^nd electron3 ^rd electron4 ^th electron5 ^th electron6 ^th electronIonization energy(kJ/mole) 733 1,450 7,730 10,538 13,618 18,101 The ionization energies (potentials) for the removal of different electrons from
![The forbidden energy gap of germanium is 0.72eV. What do you understand by it? | 12 | ELECTRONIC... - YouTube The forbidden energy gap of germanium is 0.72eV. What do you understand by it? | 12 | ELECTRONIC... - YouTube](https://i.ytimg.com/vi/hbFV9FETyE0/maxresdefault.jpg)
The forbidden energy gap of germanium is 0.72eV. What do you understand by it? | 12 | ELECTRONIC... - YouTube
![The forbidden energy gap of Ge is 0.75 eV, the maximum wavelength of incident radiation - producing an electron - hole pair in germanium semiconductor is: The forbidden energy gap of Ge is 0.75 eV, the maximum wavelength of incident radiation - producing an electron - hole pair in germanium semiconductor is:](https://dwes9vv9u0550.cloudfront.net/images/1010627/e8e08ac2-e127-4b52-8e2b-0220f8271257.jpg)