Dynamic

Source Revision 0x49378dd1…724204

Property	Value
Source Revision	0x49378dd1de7c5b28a0b5156eaa9bbced82b2e3154698a82c88dd450b1e724204
Source commit	8138f638c905727713325a3137f17714c1f06853
Removal commit	ab63f23a4165199f0a6c79ff55b469f2176d7b30
Source status	Archived source snapshot; this does not establish deployed bytecode equivalence.

Compilation status

The exact historical source did not compile from its final pre-deletion checkout. No ABI is presented as compiled output for this source snapshot.

Preserved source

// SPDX-License-Identifier: Sharia
pragma solidity ^0.8.21;
import "faung.sol";
import "conjecture.sol";

abstract contract Dynamic is Conjecture {
    Faung internal Mu;
    Fan internal Eta;
    Fei public Nu;

    function NewDynamic(uint64 Xi, uint64 Alpha, uint64 Beta) internal {
        NewConjecture(Mu.Rod);
        NewConjecture(Mu.Cone);
        // maybe generate random numgers here
        OpenManifolds(Xi, Alpha, Beta);
        Mu.Xi = Xi;
        Mu.Chi = 0;
    }

    function GetFaung() public view returns(Faung memory) {
        return Mu;
    }

    function OpenManifolds(uint64 Xi, uint64 Alpha, uint64 Beta) internal {
        ConductorGenerate(Xi);

        Conjugate(Mu.Rod, Mu.Cone.Pole);
        Conjugate(Mu.Cone, Mu.Rod.Pole);

        assert(Mu.Rod.Coordinate == Mu.Cone.Coordinate);

        Conify(Mu.Cone, Alpha);

        Saturate(Mu.Rod, Alpha, Mu.Cone.Foundation, Mu.Cone.Channel);
        Saturate(Mu.Cone, Beta, Mu.Rod.Foundation, Mu.Rod.Channel);

        assert(Mu.Rod.Element == Mu.Cone.Element);
        Ratchet();

        Adduct(Mu.Rod, Mu.Cone.Dynamo);
        Adduct(Mu.Cone, Mu.Rod.Dynamo);

        Open(Mu.Rod);
        Open(Mu.Cone);

        assert(ManifoldCompare(Mu.Rod, Mu.Cone));
        _mintToCap();
    }

    function ConductorGenerate(uint64 Xi) internal {
        Avail(Mu.Rod, Xi);
        Avail(Mu.Cone, Xi);
        Mu.Cone.Tau = Mu.Cone.Alpha;

        Form(Mu.Rod, Mu.Cone.Tau);
        Form(Mu.Cone, Mu.Rod.Alpha);

        Polarize(Mu.Rod);
        Polarize(Mu.Cone);
    }

    function Ratchet() internal {
        Bond(Mu.Rod);
        Bond(Mu.Cone);
    }

    function Charge(uint64 Signal) internal returns(uint64) {
        assert(Signal != 0);
        Charge(Mu.Cone, Signal);
        Mu.Sigma = Mu.Cone.Alpha;
        return Mu.Cone.Alpha;
    }

    function Induce() internal returns(uint64) {
        Mu.Cone.Alpha = Induce(Mu.Rod, Mu.Sigma);
        Mu.Rho = Mu.Rod.Alpha;
        return Mu.Cone.Alpha;
    }

    function Torque() internal returns(uint64) {
        Mu.Cone.Alpha = Torque(Mu.Cone, Mu.Rho);
        Mu.Upsilon = Mu.Cone.Alpha;
        return Mu.Cone.Alpha;
    }

    function Amplify() internal returns(uint64) {
        Mu.Cone.Alpha = Amplify(Mu.Cone, Mu.Upsilon);
        Mu.Ohm = Mu.Cone.Alpha;
        return Mu.Cone.Alpha;
    }

    function Sustain() internal returns(uint64) {
        Mu.Cone.Alpha = Sustain(Mu.Cone, Mu.Ohm);
        Mu.Pi = Mu.Cone.Alpha;
        return Mu.Cone.Alpha;
    }

    function React() internal {
        React(Mu.Rod, Mu.Pi, Mu.Cone.Channel);
        React(Mu.Cone, Mu.Pi, Mu.Rod.Channel);
        Mu.Omicron = Mu.Cone.Kappa;
        Mu.Omega = Mu.Rod.Kappa;
        _mintToCap();
    }

}