//          Copyright Sebastian Jeckel 2017.
// Distributed under the Boost Software License, Version 1.0.
//    (See accompanying file LICENSE_1_0.txt or copy at
//          http://www.boost.org/LICENSE_1_0.txt)

#pragma once

#if 0

#include 
#include 
#include 
#include 

#include "BenchmarkBase.h"

#include "react/group.h"
#include "react/state.h"

using namespace react;
/*
///////////////////////////////////////////////////////////////////////////////////////////////////
/// DiamondGraphGenerator
///////////////////////////////////////////////////////////////////////////////////////////////////
template
<
    typename D,
    typename TValue
>
class RandomGraphGenerator
{
public:
    typedef typename D::template SignalT        MyHandle;
    typedef typename D::template VarSignalT     MyInputHandle;

    typedef std::vector       HandleVect;
    typedef std::vector  InputHandleVect;

    InputHandleVect InputSignals;
    HandleVect      OutputSignals;

    std::function    SlowDelayFunc;
    std::function    FastDelayFunc;


    typedef std::function                       Func1T;
    typedef std::function                Func2T;
    typedef std::function         Func3T;
    typedef std::function  Func4T;

    Func1T    Function1;
    Func2T    Function2;
    Func3T    Function3;
    Func4T    Function4;

    int     Width    = 1;
    int     Height    = 1;

    int     SelectSlowCount = 0;
    int     SelectEdgeCount = 0;

    int     EdgeSeed;
    int     SlowSeed;

    void Generate()
    {
        assert(InputSignals.size() == Width);

        Func1T f1Slow = [this] (TValue a1)                                  { SlowDelayFunc(); return Function1(a1); };
        Func2T f2Slow = [this] (TValue a1, TValue a2)                       { SlowDelayFunc(); return Function2(a1,a2); };
        Func3T f3Slow = [this] (TValue a1, TValue a2, TValue a3)            { SlowDelayFunc(); return Function3(a1,a2,a3); };
        Func4T f4Slow = [this] (TValue a1, TValue a2, TValue a3, TValue a4) { SlowDelayFunc(); return Function4(a1,a2,a3,a4); };

        Func1T f1Fast = [this] (TValue a1)                                  { FastDelayFunc(); return Function1(a1); };
        Func2T f2Fast = [this] (TValue a1, TValue a2)                       { FastDelayFunc(); return Function2(a1,a2); };
        Func3T f3Fast = [this] (TValue a1, TValue a2, TValue a3)            { FastDelayFunc(); return Function3(a1,a2,a3); };
        Func4T f4Fast = [this] (TValue a1, TValue a2, TValue a3, TValue a4) { FastDelayFunc(); return Function4(a1,a2,a3,a4); };

        int nodeCount = Width * Height;
        
        std::mt19937 edgeGen(EdgeSeed);
        const auto edgeNodes = GetUniqueRandomNumbers(edgeGen, Width, nodeCount - 1, SelectEdgeCount);

        std::mt19937 slowGen(SlowSeed);
        const auto slowNodes = GetUniqueRandomNumbers(slowGen, Width, nodeCount - 1, SelectSlowCount);

        std::mt19937 edgeCountGen(EdgeSeed);
        std::geometric_distribution edgeCountDist(0.5);

        auto edgeNodeIt = edgeNodes.begin();
        auto slowNodeIt = slowNodes.begin();

        auto cur = 0;
        HandleVect nodes(nodeCount);

        for (int w=0; w* f3;
                    }
                    else
                    {
                        nodes[cur] = (nodes[kNode0], nodes[rNode1], nodes[rNode2], nodes[rNode3]) ->* f4;
                    }
                }
                else
                {
                    nodes[cur] = nodes[cur-Width] ->* f1;
                }

                cur++;
            }
        }

        OutputSignals.clear();
        for (int i=Width*(Height-1); i