本文尝试从一个长期被忽视的形式系统内部裂缝出发——即哥德尔第一不完备定理 (1931) 所揭示的自指闭包的不完备性——推导出一个新的数学公理系统。我们提出: 经典减法公理 (a - a = 0) 只是一个近似。在任何非平凡的形式系统中, 自指操作都会留下一个不可约的非零残余。我们将这个残余形式化为“偏元常数ε”, 并从这个单一公理出发, 重新定义数学基础: 原点不再是0而是ε;自然数携带方向偏好;π被重新定义为拓扑闭包角;e被定义为方向偏好场中的生长形态;i被定义为π/2旋转算子;黄金螺线方程成为无自由参数形式r (θ) = ε·e^ (φ⁻¹ + iε) θ;欧拉公式从闭环恒等式e^iπ+1=0转变为开路径表达e^ (ε+i) π+ (ε+1) =ε·R+1。当ε→0时, 该体系中所有定义退化为经典对应形态。本文不宣称推翻经典数学, 而是提供一个替代性的、自洽的数学框架, 解决经典假设下完美减法闭包遗留的逻辑裂缝。 This paper attempts to derive a new mathematical axiom system from a long-overlooked internal fissure within formal systems: the incompleteness of self-referential closure, as revealed by Gödel's first incompleteness theorem (1931). We propose that the classical subtraction axiom (a - a = 0) is only an approximation. In any non-trivial formal system, self-referential operations leave an irreducible, non-zero residual. We formalize this residual as the Partial-Deviation constant ε, and from this single axiom, we redefine the foundations of mathematics: the origin is no longer 0 but ε; natural numbers carry a directional preference; π is redefined as a topological closure angle; e as a growth form in a direction-biased field; i as a π/2 rotation operator; and the golden spiral equation becomes a zero-free-parameter form r (θ) = ε·e^ (φ⁻¹ + iε) θ. Euler's formula transitions from a closed identity e^iπ + 1 = 0 to an open-path expression e^ (ε+i) π + (ε+1) = ε·R + 1. When ε → 0, all definitions in this system degenerate into their classical counterparts. This paper does not claim to overturn classical mathematics, but rather to provide an alternative, self-consistent mathematical framework that addresses a logical gap left by the classical assumption of perfect subtractive closure.
Song Chen (Tue,) studied this question.