The stability and stabilization problems of dynamic systems should be first considered in the process of controller design. With the development of the control theory, numerous important results have been achieved [1]- [4]. It is worth noting that the above results are obtained during an infinite-time interval. But, in many real applications, we always hope that the trajectory of a control system converges to zero in finite-time. Therefore, a basic design and analysis method, called finite-time control (FTC), is proposed in [5]. Afterwards, various stability and stabilization methods of the FTC are developed. In [6], the approach of the adding a power integrator (AAPI) is first used to address the finite-time stability (FTS) problem for uncertain high-order nonlinear systems. Furthermore, a new sufficient condition of the FTS is given in [7]. It has been proven that the settling time in [7] is smaller than that in [6] based on [8]. The finite-time input-to-state stability is first studied in [9]. Authors in [10] focus on the global finite-time stabilization problem for a kind of upper-triangular systems. With the assumption that nonlinear systems are homogeneous, a homogeneous finite-time local controller is proposed for a group of nonlinear systems in [11] and [12]. It iswell known that the control issue will become difficult if the control directions are unknown. Although Nussbaum-gain functions can be employed to tackle this kind of problems, it only guarantees that the signals in the closed-loop systems are bounded. In order to obtain the FTS rather than the finite-time boundedness (FTB), a novel logic switching rule is provided in [13] to make the system globally finite-time stable. By improving the results of the traditional FTS, a novel result called fast finite-time stability is proposed in [14], by which the convergent rate can be speeded up.