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Achieving small error for qubit gate operations under random telegraph noise(RTN) is of great interest for potential applications in quantum computing andquantum error correction. I calculate the error generated in the qubit drivenby $\pi$, CORPSE, SCORPSE, symmetric and asymmetric pulses in presence of RTN.For a special case when pulse acts in x-direction and RTN in z-direction, Ifind that for small value of noise correlation time, $\pi$-pulse has smallerror among all the other pulses. For large value of noise correlation time,possibly white noise, symmetric pulse generates small error for small energyamplitudes of noise strength, whereas CORPSE pulse has small error for largeenergy amplitudes of noise strength. For the pulses acting in all the threedirections, several pulse sequences were identified that generate small errorin presence of small and large strength of energy amplitudes of RTN. Moreprecisely, when $\pi$ pulse acts in x direction, CORPSE pulse acts in ydirection and SCORPSE pulse acts in z-direction then such pulse sequencesinduces small error and may consider for better candidate in implementing ofbit-flip quantum error correction. Error analysis of small energy amplitudes ofRTN may be useful for low temperature measurements, whereas error analysis oflarge energy amplitudes of RTN may be useful for room temperature measurementsof quantum error correction codes.

Error analysis of bit-flip qubits under random telegraph noise for low and high temperature measurement application