Struct IntCodec 

pub struct IntCodec<T: Integer<T>, D = T> { /* private fields */ }

A Codec for a Genotype of IntGenes. The encode function creates a Genotype with num_chromosomes chromosomes and num_genes genes per chromosome. The decode function creates a Vec<Vec<T>> from the Genotype where the inner Vec contains the alleles of the IntGenes in the chromosome. T must implement the Integer trait, meaning it must be one of i8, i16, i32, i64, i128, u8, u16, u32, u64, or u128.

The lower and upper bounds of the IntGenes can be set with the with_bounds function. The default bounds are equal to min and max.

Implementations

impl<T: Integer<T>, D> IntCodec<T, D>

pub fn with_bounds(self, bounds: Range<T>) -> Self

impl<T: Integer<T>> IntCodec<T, Vec<Vec<T>>>

pub fn matrix(rows: usize, cols: usize, range: Range<T>) -> Self

Create a new IntCodec with the given number of chromosomes, genes, min, and max values. The f_32 values for each IntGene will be randomly generated between the min and max values.

impl<T: Integer<T>> IntCodec<T, Vec<T>>

pub fn vector(count: usize, range: Range<T>) -> Self

Create a new IntCodec with the given number of chromosomes, genes, min, and max values. The f_32 values for each IntGene will be randomly generated between the min and max values.

impl<T: Integer<T>> IntCodec<T, T>

pub fn scalar(range: Range<T>) -> Self

Create a new IntCodec with the given number of chromosomes, genes, min, and max values. The f_32 values for each IntGene will be randomly generated between the min and max values.

Trait Implementations

impl<T: Clone + Integer<T>, D: Clone> Clone for IntCodec<T, D>

fn clone(&self) -> IntCodec<T, D>

Returns a duplicate of the value.

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source.

impl<T: Integer<T>> Codec<IntChromosome<T>, T> for IntCodec<T, T>

Implement the Codec trait for a Genotype of IntGenes. This will produce a Genotype with a single chromosome and a single gene. The decode function will create a T or a single value. The encode function creates a Genotype with a single chromosomes and a single gene per chromosome.

Example

use radiate_core::*;

// Create a new IntCodec with a single gene
// per chromosome - a single i32 value.
let codec = IntCodec::scalar(0..100);
let genotype: Genotype<IntChromosome<i32>> = codec.encode();
let decoded: i32 = codec.decode(&genotype);

fn encode(&self) -> Genotype<IntChromosome<T>>

fn decode(&self, genotype: &Genotype<IntChromosome<T>>) -> T

impl<T: Integer<T>> Codec<IntChromosome<T>, Vec<T>> for IntCodec<T, Vec<T>>

Implement the Codec trait for a Genotype of IntGenes. This will produce a Genotype with a single chromosome and num_genes genes. The decode function will create a Vec<T> or a vector.

Example

use radiate_core::*;

// Create a new IntCodec with 10 genes
// per chromosome - a  vector of i32 values.
let codec = IntCodec::vector(10, 0..100);
let genotype: Genotype<IntChromosome<i32>> = codec.encode();
let decoded: Vec<i32> = codec.decode(&genotype);

fn encode(&self) -> Genotype<IntChromosome<T>>

fn decode(&self, genotype: &Genotype<IntChromosome<T>>) -> Vec<T>

impl<T: Integer<T>> Codec<IntChromosome<T>, Vec<Vec<T>>> for IntCodec<T, Vec<Vec<T>>>

Implement the Codec trait for a Genotype of IntGenes. This will produce a Genotype with the given number of chromosomes and genes. The decode function will create a Vec<Vec<T>> or a matrix.

Example

use radiate_core::*;

// Create a new IntCodec with 10 chromosomes with 10 genes
// per chromosome - a matrix of i32 values.
let codec = IntCodec::matrix(10, 10, 0..100);
let genotype: Genotype<IntChromosome<i32>> = codec.encode();
let decoded: Vec<Vec<i32>> = codec.decode(&genotype);

fn encode(&self) -> Genotype<IntChromosome<T>>

fn decode(&self, genotype: &Genotype<IntChromosome<T>>) -> Vec<Vec<T>>