Tuomas Sorakivi carried out together with me a large language model (LLM) assisted experimentation with the graphical representation of the space-time surfaces satisfying holography= holomorphy hypothesis. Also the hypothesis that ramified primes
associated with the iterates of certain second order polynomial could be primes near powers of two is studied numerically using LLM assistance.
- A summary of the computations carried out and theory behind them is given in the article The results of a project related to the holography= holomorphy vision. A brief summary of the TGD based model can be found here.
- The equations for the space-time surface associated with a third order polynomial P_3(\xi1,w,u) can be solved analytically. In 2-dimensional algebraic geometry, these surfaces correspond to elliptic surfaces in 2-dimensional complex space with ξ1 and w as coordinates. Space-time surface can be represented as an animation for the time evolution of an elliptic surface. A graphical representation is constructed (see this).
- The roots of the polynomial defining space-time surface have as interfaces 3-dimensional surfaces at which two roots are identical. For the illustration of the interfaces see this.
- Weierstrass elliptic functions (see this) are particular elliptic functions being meromorphic and doubly periodic. For a visualization in this case see
this.
- The ramified primes are divisors of the discriminant D of a polynomial defined as the product of its non-vanishing root differences. Could some ramified primes satisfy the p-adic length scale hypothesis for some iterates of a suitable choice of degree 2. This would mean that the primes near powers of 2 appear as ramified primes. As an example the discriminant D and ramified primes for the iterates of g1(z)= z(z-ε), were studied. Of course, there exists an endless variety of these kinds of polynomials but one might hope that the chosen polynomial might be special because of its 2-adic features. The study was carried out with Tuomas Sorakivi (see this). The conclusion was negative and led to the notion of the functional p-adic numbers.