public void Complex_WeightOne()
        {
            var connList = new List <WeightedDirectedConnection <double> >
            {
                new WeightedDirectedConnection <double>(0, 4, 1.0),
                new WeightedDirectedConnection <double>(1, 4, 1.0),
                new WeightedDirectedConnection <double>(1, 5, 1.0),
                new WeightedDirectedConnection <double>(3, 4, 1.0),
                new WeightedDirectedConnection <double>(4, 2, 0.9),
                new WeightedDirectedConnection <double>(5, 3, 1.0)
            };

            // Create graph.
            var digraph = WeightedDirectedGraphAcyclicBuilder <double> .Create(connList, 2, 2);

            // Create neural net and run tests.
            var actFn = new Logistic();
            var net   = new NeuralNetAcyclic(digraph, actFn.Fn);

            Complex_WeightOne_Inner(net, actFn);

            // Create vectorized neural net and run tests.
            var vnet = new NeuralNet.Double.Vectorized.NeuralNetAcyclic(digraph, actFn.Fn);

            Complex_WeightOne_Inner(vnet, actFn);
        }
        static NeuralNetAcyclicBenchmarks()
        {
            // TODO: Load neural nets directly, instead of loading a genome and decoding.
            var metaNeatGenome = new MetaNeatGenome <double>(12, 1, true, new ActivationFunctions.LeakyReLU());
            var genomeLoader   = NeatGenomeLoaderFactory.CreateLoaderDouble(metaNeatGenome);
            var genome         = genomeLoader.Load("data/genomes/binary11.genome");

            var genomeDecoder = new NeatGenomeDecoderAcyclic();

            __nn = (NeuralNetAcyclic)genomeDecoder.Decode(genome);

            // Set some non-zero random input values.
            var rng = RandomDefaults.CreateRandomSource();

            for (int i = 0; i < __nn.InputVector.Length; i++)
            {
                __nn.InputVector[i] = rng.NextDouble();
            }
        }
        public void SingleInput_WeightOne()
        {
            var connList = new List <WeightedDirectedConnection <double> >();

            connList.Add(new WeightedDirectedConnection <double>(0, 1, 1.0));

            // Create graph.
            var digraph = WeightedDirectedGraphAcyclicBuilder <double> .Create(connList, 1, 1);

            // Create neural net and run tests.
            var actFn = new Logistic();
            var net   = new NeuralNetAcyclic(digraph, actFn.Fn);

            SingleInput_WeightOne_Inner(net, actFn);

            // Create vectorized neural net and run tests.
            var vnet = new NeuralNet.Double.Vectorized.NeuralNetAcyclic(digraph, actFn.Fn);

            SingleInput_WeightOne_Inner(vnet, actFn);
        }
    public void SingleInput_WeightZero()
    {
        var connList = new LightweightList <WeightedDirectedConnection <double> > {
            new WeightedDirectedConnection <double>(0, 1, 0.0)
        };
        var connSpan = connList.AsSpan();

        // Create graph.
        var digraph = WeightedDirectedGraphAcyclicBuilder <double> .Create(connSpan, 1, 1);

        // Create neural net and run tests.
        var actFn = new Logistic();
        var net   = new NeuralNetAcyclic(digraph, actFn.Fn);

        SingleInput_WeightZero_Inner(net);

        // Create vectorized neural net and run tests.
        var vnet = new NeuralNets.Double.Vectorized.NeuralNetAcyclic(digraph, actFn.Fn);

        SingleInput_WeightZero_Inner(vnet);
    }
        public void TwoInputs_WeightHalf()
        {
            var connList = new List <WeightedDirectedConnection <double> >
            {
                new WeightedDirectedConnection <double>(0, 2, 0.5),
                new WeightedDirectedConnection <double>(1, 2, 0.5)
            };

            // Create graph.
            var digraph = WeightedDirectedGraphAcyclicBuilder <double> .Create(connList, 2, 1);

            // Create neural net and run tests.
            var actFn = new Logistic();
            var net   = new NeuralNetAcyclic(digraph, actFn.Fn);

            TwoInputs_WeightHalf_Inner(net, actFn);

            // Create vectorized neural net and run tests.
            var vnet = new NeuralNet.Double.Vectorized.NeuralNetAcyclic(digraph, actFn.Fn);

            TwoInputs_WeightHalf_Inner(vnet, actFn);
        }
        public void MultipleInputsOutputs()
        {
            var connList = new List <WeightedDirectedConnection <double> >
            {
                new WeightedDirectedConnection <double>(0, 5, 1.0),
                new WeightedDirectedConnection <double>(1, 3, 1.0),
                new WeightedDirectedConnection <double>(2, 4, 1.0)
            };

            // Create graph.
            var digraph = WeightedDirectedGraphAcyclicBuilder <double> .Create(connList, 3, 3);

            // Create neural net and run tests.
            var actFn = new Logistic();
            var net   = new NeuralNetAcyclic(digraph, actFn.Fn);

            MultipleInputsOutputs_Inner(net, actFn);

            // Create vectorized neural net and run tests.
            var vnet = new NeuralNet.Double.Vectorized.NeuralNetAcyclic(digraph, actFn.Fn);

            MultipleInputsOutputs_Inner(vnet, actFn);
        }
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        public void HiddenNode()
        {
            var connList = new List <WeightedDirectedConnection <double> >
            {
                new WeightedDirectedConnection <double>(0, 3, 0.5),
                new WeightedDirectedConnection <double>(1, 3, 0.5),
                new WeightedDirectedConnection <double>(3, 2, 2.0)
            };

            // Create graph.
            var digraph = WeightedDirectedGraphAcyclicBuilder <double> .Create(connList, 2, 1);

            // Create neural net and run tests.
            var actFn = new Logistic();
            var net   = new NeuralNetAcyclic(digraph, actFn.Fn);

            HiddenNode_Inner(net, actFn);

            // Create vectorized neural net and run tests.
            var vnet = new NeuralNets.Double.Vectorized.NeuralNetAcyclic(digraph, actFn.Fn);

            HiddenNode_Inner(vnet, actFn);
        }