| Excellent | Good | Acceptable | Not acceptable |
| Achievement 1 | From the Bohr condition, the orbital radius and total energy of the electrons of the hydrogen atom are found. Explain principal quantum numbers, subquantum numbers, and magnetic quantum numbers, and explain the difference in orbital shapes. | Can explain particle-wave duality, Bohr's hypothesis, de Broglie waves, quantum numbers, and Pauli's exclusion principle. | Can explain particle-wave duality, Bohr's hypothesis, de Broglie's wave, quantum numbers, and Pauli's exclusion principle using the reference book | Can't explain particle-wave duality, Bohr's hypothesis, de Broglie's wave, quantum numbers, and Pauli's exclusion principle even using the reference book |
| Achievement 2 | Can explain the mechanism of the formation of the energy band structure of semiconductors. | Can draw conduction, forbidden and valence band structures in semiconductors. Explain the differences in the energy band structures of metals, semiconductors, and insulators. | Can explain the differences between the energy band structures of metals, semiconductors and insulators using the drawings of the energy band structure of semiconductors in the reference book. | Can't explain the differences between the energy band structures of metals, semiconductors and insulators even using the drawings of the energy band structure of semiconductors in the reference book. |
| Achievement 3 | Equations for state density, distribution function and carrier density can be derived. The temperature characteristics of carrier density can be drawn and the true region, the exodus region, and the impurity region can be explained. | Can explain the meaning of expressions for state density, distribution function and carrier density. I can explain the Fermi level. Explain free electrons and holes. We can explain the difference between a genuine semiconductor and an impurity semiconductor. Explain the impurity levels. | Can explain density of states and distribution function, carrier density, Fermi levels, and the difference between intrinsic and impurity semiconductors. Explain impurity levels using the electron state diagrams in the reference book, | Can't explain density of states and distribution function, carrier density, Fermi levels, and the difference between intrinsic and impurity semiconductors. Explain impurity levels even using the electron state diagrams in the reference book, |
| Achievement 4 | Can explain quantitatively the rectifying action of a diode using an equation.
| Can draw the energy level diagram of a pn junction. Explain the rectifying action of diodes qualitatively using the energy level diagram | Explain the rectifying action of diodes qualitatively using the energy level diagram of pn junctions in the reference book. | Cannot draw an energy level diagram of a pn junction. The rectification action of the diode cannot be explained qualitatively using the energy level diagram. |
| Achievement 5 | The operation of MOS-FETs can be explained and the operating points can be calculated. | Can explain the operation of MOS-FETs.
| MOS-FET operation can be explained using the reference book | MOS-FET operation is not explained using the reference book |
| Achievement 6 | Explain the operation of memory IC (DRAM, EEPROM). Explain the operation of memory IC (DRAM). | Explain memory IC (DRAM) operation | Explain memory IC (DRAM) operation using reference books. | The operation of memory IC (DRAM) cannot be explained by using reference books.
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| Achievement 7 | Can write the symbol for a quantum bit and explain one of the quantum algorithms using a reference book. | can write the symbols for qubits and explain one of the quantum algorithms with the help of a reference book. | Can write symbols for qubits using a reference book. | can't write symbols for qubits using a reference book. |