This chapter presents an in-depth analysis of Direct Torque Control (DTC) for three-phase induction motors, a control strategy recognized for its superior performance in torque regulation and dynamic response. We begin by introducing the fundamental concepts of DTC and its significance in modern motor control applications. The chapter highlights the use of Park transformation to model the induction motor in a rotating reference frame, simplifying the control process. Key topics include the investigation of space voltage vectors within the framework of the Six Switch Three-Phase Inverter (SSTPI), as well as the principles underlying stator flux and electromagnetic torque control. We examine the implementation of classical DTC strategies, emphasizing the necessary algorithms and hardware configurations to achieve optimal performance. Additionally, we explore advanced techniques such as bus-clamping based DTC, which enhance control efficacy in various operational scenarios. Through the integration of simulation tools like Matlab/Simulink and practical validation methods using dSPACE 1104, this chapter underscores the relevance of DTC in contemporary electric drive systems. By demonstrating the effectiveness of DTC in various applications, this work aims to contribute to the ongoing development of efficient and responsive motor control technologies.