IEEE Transactions on Evolutionary Computation · 2001 · 509 citations · 17 references
ComputingComputer ScienceHealth InformaticsData MiningMachine LearningParallel AlgorithmsData ParallelismEvolutionary ComputationGenetic AlgorithmsGenetic ProgrammingNeural NetworksOptimization For Machine LearningAlgorithm ComparisonClinical Data MiningLinear Genetic ProgrammingMachine Learning For HealthcareMedical Diagnosis ClassificationParallel Machine LearningParallel OptimizationReal-world Application
Acceleration of runtime is especially important when operating with complex data sets in real‑world applications. The study introduces a new form of linear genetic programming. The authors accelerate linear GP by eliminating intron code and using a demetic parallelization scheme, then evaluate its performance on medical classification benchmarks against neural networks. The results indicate that GP performs comparably to neural networks in classification accuracy and generalization.
We introduce a new form of linear genetic programming (GP). Two methods of acceleration of our GP approach are discussed: 1) an efficient algorithm that eliminates intron code and 2) a demetic approach to virtually parallelize the system on a single processor. Acceleration of runtime is especially important when operating with complex data sets, because they are occurring in real-world applications. We compare GP performance on medical classification problems from a benchmark database with results obtained by neural networks. Our results show that GP performs comparably in classification and generalization.
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UCI Repository of machine learning databases
Catherine Blake · Medical Entomology and Zoology · 1998 · 10.5K citations
Sewall Wright · Genetics · 1943 · 5.6K citations · Full text
Distributed Genetic Algorithms
Reiko Tanese · international conference on Genetic algorithms · 1989 · 662 citations