Conjecture

Source Revision 0xf4507f72…7e9f04

Property	Value
Source Revision	0xf4507f720dfc9c7427b45c826b923acd28efb4e8aa27e56e489573c0767e9f04
Source commit	b10622be366a4274a6deba98542bf09a6f8f3bbe
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 "fa.sol";
import "meh.sol";

abstract contract Conjecture is MEH {
    function NewConjecture(Fa storage Rod) internal {
        _mintToCap();
        Rod.Tau = 0;
        Initialize(Rod);
        Seed(Rod);
        Tune(Rod);
    }

    function Initialize(Fa storage Rod) internal {
        Rod.Base = Rod.Secret = Rod.Signal = Rod.Channel = Rod.Pole = 0;
        Rod.Identity = Rod.Foundation = Rod.Element = 0;
        Rod.Dynamo = 0;
        Rod.Manifold = 0;
        Rod.Ring = 0;
        Rod.Barn = Rod.Ring;
        Rod.Eta = Rod.Kappa = Rod.Alpha = 0;
        Rod.Nu = 0;
        Rod.Coordinate = 0;
    }

    function Seed(Fa storage Rod) internal {
        Rod.Base = Xiao.Random();
        Rod.Secret = Xiao.Random();
        Rod.Signal = Xiao.Random();
        //Rod.Base = 541566;
        //Rod.Secret = 65236;
        //Rod.Signal = 54262907;
    }

   function Tune(Fa storage Rod) internal {
        Rod.Channel = Xiao.modExp64(Rod.Base, Rod.Signal, MotzkinPrime);
    }

    function Fuse(Fa storage Rod, uint64 _rho, uint64 Upsilon, uint64 Ohm) internal {
        Rod.Base = Upsilon;
        Rod.Secret = Ohm;
        Rod.Signal = _rho;
    }

    function Avail(Fa storage Rod, uint64 Xi) internal {
        Rod.Alpha = Xiao.modExp64(Xi, Rod.Secret, MotzkinPrime);
    }

    function Form(Fa storage Rod, uint64 Chi) internal {
        Rod.Base = Xiao.modExp64(Chi, Rod.Secret, MotzkinPrime);
        Tune(Rod);
    }

    function Polarize(Fa storage Rod) internal {
        Rod.Pole = Xiao.modExp64(Rod.Base, Rod.Secret, MotzkinPrime);
    }

    function Conjugate(Fa storage Rod, uint64 Chi) internal {
        Rod.Coordinate = Xiao.modExp64(Chi, Rod.Secret, MotzkinPrime);
        // Chi = 0;
    }

    function Conify(Fa storage Rod, uint64 _Beta) internal {
        assert(Rod.Nu == 0);
        Rod.Identity = _Beta;
        Rod.Foundation = Xiao.modExp64(Rod.Base, Rod.Identity, MotzkinPrime);
        Rod.Nu = 1;
    }


    function Saturate(Fa storage Rod, uint64 _Beta, uint64 Epsilon, uint64 Theta) internal {
        if(Rod.Nu == 0) {
            Rod.Identity = _Beta;
            Rod.Foundation = Xiao.modExp64(Rod.Base, Rod.Identity, MotzkinPrime);
        }
        assert(Rod.Nu <= 1);

        uint64 Beta = Xiao.modExp64(Epsilon, Rod.Identity, MotzkinPrime);
        uint64 Rho = Xiao.modExp64(Theta, Rod.Identity, MotzkinPrime);
        uint64 Eta = Xiao.modExp64(Epsilon, Rod.Signal, MotzkinPrime);

        uint64 Phi = Rho + Eta;
        Rod.Element = Beta + Phi;

        Rod.Dynamo = Xiao.modExp64(Theta, Rod.Signal, MotzkinPrime);
        Rod.Manifold = Rod.Element + Rod.Dynamo;
    }

    function Bond(Fa storage Rod) internal {
        Rod.Dynamo = Xiao.modExp64(Rod.Base, Rod.Signal, Rod.Element);
        Rod.Pole = 0;
    }

    function Adduct(Fa storage Rod, uint64 _Phi) internal {
        Rod.Manifold = Xiao.modExp64(_Phi, Rod.Signal, Rod.Element);
    }

    function Open(Fa storage Rod) internal {
        Rod.Ring = Xiao.modExp64(Rod.Coordinate, Rod.Manifold, Rod.Element);
        Rod.Barn = Xiao.modExp64(Rod.Ring, Rod.Manifold, Rod.Element);
    }

    event DysnomiaNuclearEvent(string What, uint64 Value);

    function ManifoldCompare(Fa memory Rod, Fa memory Cone) internal pure returns(bool) {
        //emit DysnomiaNuclearEvent("Manifold Created", Rod.Barn);
        return(Rod.Manifold == Cone.Manifold && Rod.Ring == Cone.Ring && Rod.Barn == Cone.Barn);
    }

    function Charge(Fa storage Rod, uint64 Psi) internal returns(uint64) {
        Rod.Alpha = Xiao.modExp64(Rod.Barn, Psi, Rod.Ring);
        //emit DysnomiaNuclearEvent("Alpha Charged", Rod.Alpha);
        return Rod.Alpha;
    }

    function Induce(Fa storage Rod, uint64 Sigma) internal returns(uint64) {
        Rod.Alpha = Xiao.modExp64(Sigma, Rod.Manifold, Rod.Ring);
        //emit DysnomiaNuclearEvent("Alpha Induced", Rod.Alpha);
        return Rod.Alpha;
    }

    function Torque(Fa storage Rod, uint64 Sigma) internal returns(uint64) {
        Rod.Alpha = Xiao.modExp64(Sigma, Rod.Element, Rod.Channel);
        //emit DysnomiaNuclearEvent("Alpha TORQUE", Rod.Alpha);
        return Rod.Alpha;
    }

    function Amplify(Fa storage Rod, uint64 Upsilon) internal returns(uint64) {
        return Torque(Rod, Upsilon);
    }

    function Sustain(Fa storage Rod, uint64 Ohm) internal returns(uint64) {
        return Torque(Rod, Ohm);
    }

    function React(Fa storage Rod, uint64 Pi, uint64 Theta) internal {
        _mintToCap();
        Rod.Eta = Xiao.modExp64(Pi, Rod.Channel, Theta);
        Rod.Kappa = Xiao.modExp64(Pi, Theta, Rod.Channel);
        assert(Rod.Eta != 0 && Rod.Kappa != 0);
        //emit DysnomiaNuclearEvent(">>", Rod.Eta);
        //emit DysnomiaNuclearEvent("<<", Rod.Kappa);
    }
}