This paper introduces the Dialectical Generative Algebra (DGA), a purely algebraic framework designed to formalize generation rather than static symmetry. A DGA consists of a vector space equipped with two bilinear operations, ⊲ (thesis action) and ⊳ (antithesis action), together with an increasing filtration measuring generative depth. The two operations are constrained by a pair of cyclic closure identities ensuring coherence when the actions alternate (in the primitive “triadic” regime). We study a fundamental depth–zero example generated by a ternary triple (l, n, d) with a concrete multiplication table. For a canonical choice of depth–zero operations, the derived shadow bracket a, b = a ⊲ b − b ⊳ a restricts on F0 to a Lie algebra isomorphic to sl2 (equivalently so(3) over k). We also determine the visible automorphism group of the depth–zero ternary sector under the constraint that primitive generators are mapped to primitive generators (up to sign). This discrete symmetry group is shown to be isomorphic to the symmetric group S4 and hence has order 24. Extending beyond depth zero, we analyze a natural compatibility demand: requiring the shadow bracket to satisfy the left Leibniz identity on the depth–one sector F1 forces the two operations to satisfy the six dialgebra axioms of Loday. Consequently, the shadow bracket becomes a Leibniz bracket on F1 while restricting to the Lie bracket on F0. Finally, we present a constructive subclass, square–root generative algebras, in which each new depth is generated by formal square roots of a chosen basis in the previous layer. This yields an explicit exponential dimension growth and connects conceptually to doubling constructions such as Cayley–Dickson.
ZHAI Xingyun (Sun,) studied this question.