Abstract: In response to the stringent requirements of high-frequency, high-power-density IGBT modules for driver chips, it is essential to mitigate electromagnetic interference exacerbated by increased switching speeds and achieve dynamic balance between switching losses and electrical stress. This paper proposes a high-performance driver chip solution that integrates a multi-stage closed-loop control architecture with multi-dimensional anti-interference techniques. The solution comprises: a multi-stage dynamic compensation optimization control technology, which constructs a multi-level drive current regulation model by real-time acquisition of IGBT switching transient characteristic parameters, reducing voltage overshoot from 56V to 18V and current overshoot from 45A to 36A; an electromagnetic susceptibility suppression system, employing a power supply rejection ratio (PSRR) >106 dB bandgap reference and PSRR >116 dB operational amplifier in the power system, a level-shifting module with a novel high dv/dt tolerance architecture capable of withstanding 100 V/ns, and an input stage integrating a pulse filter with a 20 MHz cut-off frequency; and multiple dynamic fault protection mechanisms, which establish a desaturation protection threshold by real-time monitoring of VCE and drive voltages, coupled with a wide-range undervoltage lockout circuit enabling microsecond-level rapid response. Fabricated in Hua Hong Hongli’s BCD180GE process, experimental results show that the system achieves maximum charge and discharge currents of 2.27A/2.57A, and a key figure of merit—electromagnetic interference rejection ratio (EMIRR)—exceeds 97 dB, comprehensively outperforming conventional open-loop drive schemes.