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Population

A population is a defined group or complete set of people, units, observations, or candidate solutions considered together in a particular context.

How 9 Manning books explain it

Advanced Algorithms and Data Structures

A population is a collection of candidate individuals maintained by a genetic algorithm during an evolutionary iteration.

How it is used
Maintains multiple candidate solutions across genetic-algorithm generations instead of adjusting one solution at a time.
How deep it goes
Works through initialization and generation replacement in pseudocode, while leaving chromosome initialization and evolutionary operators problem-dependent.
Examples
Uses random bit-string populations for 0–1 knapsack and population-size comparisons for the traveling-salesperson problem.
What you can do after
Build it from scratch by initializing candidate individuals and replacing each generation through fitness-guided selection, crossover, and mutation.

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Optimization Algorithms: AI techniques for design, planning, and control problems

In evolutionary computation, a population is a set of candidate solutions maintained and evolved across iterations or generations.

How it is used
Uses a population to search multiple candidate solutions and evolve them across genetic-algorithm generations.
How deep it goes
Defines individuals and details initialization, fitness evaluation, reproduction, survivor selection, and size tuning through a worked Python implementation.
Examples
Works through five binary-encoded ticket-price candidates and compares Python implementations with populations of five and 100.
What you can do after
Build it from scratch in Python or apply it via pymoo, then experiment with population size and initialization.

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Grokking AI Algorithms, Second Edition

A population is the collection of candidate solutions maintained in an evolutionary algorithm at a particular generation.

How it is used
Keeps multiple candidate solutions available so an evolutionary algorithm can explore a large optimization space across generations.
How deep it goes
Walks through encoding, random initialization, fitness scoring, and generation replacement, with a learning-oriented Python initialization example.
Examples
Uses binary-encoded knapsack candidates, overweight-solution penalties, and a Python function that generates random individuals.
What you can do after
Build it from scratch in Python by generating an initial population of binary-encoded candidates.

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Classic Computer Science Problems in Swift: Essential techniques for practicing programmers

A population in a genetic algorithm is a collection of candidate solutions maintained as a group during evolution.

How it is used
Frames candidate solutions as a group that selection, reproduction, crossover, and mutation transform across generations.
How deep it goes
Defines population structure and gives implementation steps, while leaving population-size and probability choices configurable.
Examples
Uses antibiotic-resistant bacteria, random chromosome arrays, fitness caches, roulette selection, tournament selection, crossover, and mutation.
What you can do after
Operate/configure a GeneticAlgorithm population by choosing its size, selection method, crossover chance, mutation chance, and generation limit.

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Causal AI

A population is the complete set of individuals, units, or observations about which an analysis seeks to generalize.

How it is used
Frames the set to which statistical or probabilistic conclusions are generalized, including heterogeneous groups and filtered subpopulations.
How deep it goes
Explains population modeling through distributions, conditional probability, stochastic processes, and IID sampling, but stops short of a full sampling-design treatment.
Examples
Uses future MNIST digits, website users, medicine recipients, players with high engagement, and randomly selected IID samples.
What you can do after
Evaluate/understand which population a model or probability statement describes and when a claim applies only to a subpopulation.

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Grokking Statistics

A population is the complete set of filament units or production sources about which the analysis seeks to draw conclusions.

How it is used
Frames the target group or domain from which statistical conclusions are drawn, usually through a representative sample.
How deep it goes
Defines boundaries, distinguishes concrete from theoretical populations, and explains why census measurement often stops at sampling.
Examples
Uses collies, students, product owners, Pilates registrants, road events, dormitory sleep data, and filament production sources.
What you can do after
Evaluate whether observed data represents the intended population and recognize when conclusions require cautious sampling-based inference.

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Inside AI

A population is a collection of candidate solutions maintained by a genetic algorithm.

How it is used
Uses populations to organize competing candidate solutions during genetic-algorithm optimization.
How deep it goes
Explains population lifecycle through evaluation, selection, crossover, mutation, generations, and stopping conditions.
Examples
Uses supply-chain routes, distribution plans, schedules, delivery time, and cost as candidate solutions and evaluation criteria.
What you can do after
Apply populations within genetic algorithms to compare, recombine, mutate, and iteratively improve candidate solutions.

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Starting Data Analytics with Generative AI and Python

A population is the complete set of individuals, units, or observations about which a statistical analysis seeks to draw conclusions.

How it is used
Frames statistical inference around drawing conclusions about a population from sample data.
How deep it goes
Defines populations and samples, explains estimation with confidence intervals, and distinguishes complete-data calculation from sample-based inference.
Examples
Uses customer spending surveys, complete transaction data, and category-level sales-price and review-score intervals.
What you can do after
Evaluate whether a result describes a complete population or estimates one from a sample, including its uncertainty.

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Evolutionary Deep Learning: Genetic algorithms and neural networks

A population is a collection of candidate solutions maintained together during an evolutionary optimization process.

How it is used
Maintains diverse candidate solutions through genetic-algorithm generations so evolutionary change can continue.
How deep it goes
Defines population structure, implements its tensor representation, and follows fitness, reproduction, mutation, replacement, and stopping criteria.
Examples
Uses binary NumPy tensors, a one-max problem, notebook listings, fitness histograms, and generation-level summary statistics.
What you can do after
Build it from scratch, evolve binary candidate populations, and inspect collective fitness across generations.

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Related concepts

These guides are generated from the text of Manning books by Manning's knowledge graph and link to the sections they draw on. The full books are available on liveBook and at manning.com.