Esempio n. 1
0
        public void Test_Merge()
        {
            IChanceAbstraction[] chanceAbstractions = new IChanceAbstraction[]
            {
                new LeducHeChanceAbstraction(LeducHeChanceAbstraction.FractionalResult),
                new LeducHeChanceAbstraction(LeducHeChanceAbstraction.FractionalResult)
            };

            CtMcGen.Tree tree1 = CtMcGen.Generate(_leducHeGd, chanceAbstractions, false, 10000, 333, null);
            CtMcGen.Tree tree2 = CtMcGen.Generate(_leducHeGd, chanceAbstractions, false, 10000, 333, null);

            UInt64 expSamplesCount = tree1.SamplesCount + tree2.SamplesCount;

            string fileName = Path.Combine(_outDir, "ctmcgen-tree2.dat");

            tree2.Write(fileName);
            tree1.Read(fileName);

            Assert.AreEqual(expSamplesCount, tree1.SamplesCount);

            ChanceTree ct1 = tree1.ConvertToChanceTree();
            ChanceTree ct2 = tree2.ConvertToChanceTree();

            // Compare two chance trees, they must be exactly the same.
            CompareChanceTrees cmp = new CompareChanceTrees();

            cmp.Compare(ct1, ct2);
            Assert.AreEqual(0, cmp.SumProbabDiff);
            for (int p = 0; p < chanceAbstractions.Length; ++p)
            {
                Assert.AreEqual(0, cmp.SumPotShareDiff[p]);
            }
        }
Esempio n. 2
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        public void Test_ReadWrite()
        {
            IChanceAbstraction[] chanceAbstractions = new IChanceAbstraction[]
            {
                new LeducHeChanceAbstraction(LeducHeChanceAbstraction.FractionalResult),
                new LeducHeChanceAbstraction(LeducHeChanceAbstraction.FractionalResult)
            };

            CtMcGen.Tree tree1 = CtMcGen.Generate(_leducHeGd, chanceAbstractions, false, 10000, (int)DateTime.Now.Ticks, null);
            ChanceTree   ct1   = tree1.ConvertToChanceTree();

            string fileName = Path.Combine(_outDir, "ctmcgen-tree.dat");

            tree1.Write(fileName);
            CtMcGen.Tree tree2 = new CtMcGen.Tree();
            tree2.Read(fileName);

            // Compare public data
            Assert.AreEqual(tree1.CalculateLeavesCount(), tree2.CalculateLeavesCount());
            Assert.AreEqual(tree1.SamplesCount, tree2.SamplesCount);
            Assert.AreEqual(tree1.Version, tree2.Version);

            ChanceTree ct2 = tree2.ConvertToChanceTree();

            // Compare two chance trees, they must be exactly the same.
            CompareChanceTrees cmp = new CompareChanceTrees();

            cmp.Compare(ct1, ct2);
            Assert.AreEqual(0, cmp.SumProbabDiff);
            for (int p = 0; p < chanceAbstractions.Length; ++p)
            {
                Assert.AreEqual(0, cmp.SumPotShareDiff[p]);
            }
        }
Esempio n. 3
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        static int Main(string[] args)
        {
            if (!Parser.ParseArgumentsWithUsage(args, _cmdLine))
            {
                return(1);
            }

            if (_cmdLine.DebuggerLaunch)
            {
                Debugger.Launch();
            }

            CtMcGen.Tree input = new CtMcGen.Tree();
            input.Read(_cmdLine.Input);
            long leavesCount = input.CalculateLeavesCount();

            Console.WriteLine("Input file: leaves: {0:#,#}, samples: {1:#,#}, av. samples: {2:#,#}",
                              leavesCount, input.SamplesCount, input.SamplesCount / (ulong)leavesCount);

            ChanceTree ct = input.ConvertToChanceTree();

            ct.Write(_cmdLine.Output);

            return(0);
        }
Esempio n. 4
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        /// <summary>
        /// This functions simulate a typical use case: create trees in many runs of MC sampling, write them, read again
        /// and merge into the master tree. The master tree is than verified.
        /// </summary>
        private void GenerateAndVerifyCT(string name, GameDefinition gd, IChanceAbstraction[] chanceAbstractions, bool areAbstractionsEqual, int samplesCount, int runsCount, double avRelProbabEps, double avPotShareEps, double eqValEps, bool visualize)
        {
            CtMcGen.Tree masterTree = new CtMcGen.Tree();

            int rngSeed = (int)DateTime.Now.Ticks;

            for (int run = 0; run < runsCount; ++run)
            {
                CtMcGen.Tree runTree  = CtMcGen.Generate(gd, chanceAbstractions, areAbstractionsEqual, samplesCount, rngSeed, null);
                string       fileName = Path.Combine(_outDir, String.Format("{0}-{1}-ct.dat", gd.Name, name));
                runTree.Write(fileName);
                masterTree.Read(fileName);

                // Do not use the timer anymore because the tests are too fast.
                rngSeed++;
            }

            ChanceTree actCt = masterTree.ConvertToChanceTree();

            VisChanceTree.Show(actCt, Path.Combine(_outDir, String.Format("{0}-{1}-ct.gv", gd.Name, name)));
            VerifyChanceTree.VerifyS(actCt);
            ChanceTree expCt = CreateChanceTreeByAbstraction.CreateS(gd, chanceAbstractions);

            Assert.AreEqual(expCt.PlayersCount, actCt.PlayersCount);
            CompareChanceTrees cmp = new CompareChanceTrees();

            cmp.IsVerbose = visualize;
            cmp.Output    = Console.Out;
            cmp.Compare(expCt, actCt);
            VisChanceTree.Show(expCt, Path.Combine(_outDir, String.Format("{0}-{1}-ct-exp.gv", gd.Name, name)));
            Assert.Less(cmp.AverageRelProbabDiff, avRelProbabEps);
            for (int p = 0; p < chanceAbstractions.Length; ++p)
            {
                Assert.Less(cmp.AveragePotShareDiff[p], avRelProbabEps);
            }

            ActionTree at = CreateActionTreeByGameDef.Create(gd);

            double [] actEqValues, expEqValues;
            EqLp.Solve(at, actCt, out actEqValues);
            EqLp.Solve(at, expCt, out expEqValues);
            for (int p = 0; p < chanceAbstractions.Length; ++p)
            {
                if (visualize)
                {
                    Console.WriteLine("Eq pos: {0} exp: {1} act: {2}", p, expEqValues[p], actEqValues[p]);
                }
                Assert.AreEqual(expEqValues[p], actEqValues[p], eqValEps);
            }
            if (visualize)
            {
                Console.WriteLine();
            }
        }
Esempio n. 5
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        /// <summary>
        /// Processes a file.
        /// </summary>
        public static void ProcessFile(string file)
        {
            if (!_reIncludeFiles.IsMatch(file))
            {
                Console.WriteLine("Skip file: {0}", file);
                return;
            }
            Console.Write("File: {0}", file);
            UInt64 curSamplesCount = _targetTree.SamplesCount;

            _targetTree.Read(file);
            Console.WriteLine("   samples: {0:#,#}", _targetTree.SamplesCount - curSamplesCount);
        }
Esempio n. 6
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        static int Main(string[] args)
        {
            if (!Parser.ParseArgumentsWithUsage(args, _cmdLine))
            {
                return(1);
            }

            if (_cmdLine.DebuggerLaunch)
            {
                Debugger.Launch();
            }

            _reIncludeFiles = new Regex(_cmdLine.IncludeFiles, RegexOptions.Compiled);

            if (string.IsNullOrEmpty(_cmdLine.Output))
            {
                Console.WriteLine("Output file name is missing");
                return(1);
            }
            _targetTree = new CtMcGen.Tree();
            if (File.Exists(_cmdLine.Output))
            {
                _targetTree.Read(_cmdLine.Output);
            }


            DateTime startTime = DateTime.Now;

            foreach (string path in _cmdLine.InputPaths)
            {
                ProcessPath(path);
            }

            double time = (DateTime.Now - startTime).TotalSeconds;

            _targetTree.Write(_cmdLine.Output);


            Console.WriteLine("TOTAL: samples: {0:#,#}, time: {1:0.0} s, {2:#,#} sm/s",
                              _targetTree.SamplesCount, time, _targetTree.SamplesCount / time);

            long leavesCount = _targetTree.CalculateLeavesCount();

            Console.WriteLine("Target file: leaves: {0:#,#}, samples: {1:#,#}, av. samples: {2:#,#}, path: {3}",
                              leavesCount, _targetTree.SamplesCount,
                              _targetTree.SamplesCount / (ulong)leavesCount,
                              _cmdLine.Output);

            return(0);
        }