Building upon the recently developed Complex Time Quantum Thermal Geometry (CTQTG) framework, we present a systematic derivation of ten original equations that address fundamental open problems in theoretical physics. Starting from the first-principles action on a complex time manifold $\cM$ with coordinate $z = \tau/\ell_P + i t/\ell_P$, we derive: (1) a generalized time operator satisfying $[T, H] = i\hbar\mathbbm{1} + i\hbar^2 G \kappa R$ with a geometric correction term; (2) the complex-time Dirac equation $(i\gamma^\mu\nabla_\mu - m - \xi R/\ell_P^{-1})\Psi = 0$ incorporating curvature coupling; (3) a universal Hamiltonian for dissipative systems derived from entropy production via $H = i\hbar\partial_z S$; (4) the modular flow equation $\partial_z \Psi = \delta_\Psi \Ent$ establishing equivalence between complex time and Tomita-Takesaki flow; (5) Kaluza-Klein reduction of the complex time fiber yielding an effective four-dimensional Yang-Mills theory; (6) the corrected Hawking radiation spectrum $\Gamma(\omega) = \Gamma_0(\omega)\exp(-\hbar^2 G\omega^2/k_B T_H)$; (7) cosmological perturbation equations $\mathcal{R}_k'' + (k^2 - z''/z)\mathcal{R}_k = \alpha G \rho \mathcal{R}_k$; (8) entanglement entropy evolution $\partial_z S_A = \frac{1}{4G\hbar}\int_{\gamma_A} \Omega^2 \mathcal{K} |dz|$; (9) renormalization group beta functions $\beta_G = -G^2(1/6-\xi)/2\pi$ and $\beta_\xi = G(\xi-1/6)(\xi-1/3)/2\pi$; and (10) critical scaling relations $\nu = 1/(2-\theta)$ and $\gamma = 1$ in the presence of long-range temporal interactions. Each equation is derived, interpreted physically, and placed in the context of existing literature. These results collectively demonstrate that the complex time framework provides a fertile ground for generating testable predictions and resolving long-standing puzzles at the intersection of quantum mechanics, thermodynamics, and gravity.