Search to production

Reliable models you can understand

EasyDeploy AI searches thousands of candidate pipelines on your data and keeps the strongest performer. Every model ships with feature importance, so you can see which drivers move the prediction and defend the result to finance, RevOps, and leadership.

01 / Search

How the search works

In plain terms: we try many approaches, keep the best one, and show you which drivers matter.

model search / try · select · explain

You see which drivers move the prediction

Winner locked
RandomForest-PCA
Ensemble
55%
XGBoost-Select
Ensemble
64%
SVM-RFE
SVM
72%
LogReg-Poly
Linear
80%
KNN-LDA
Neural
62%
DecTree-Var
Tree
70%
GradBoost-Best
Best model
Ensemble · Classification pipeline
Pipeline steps
StandardScaler
SelectKBest
GradientBoosting
Accuracy
90%
CV folds
5
Steps
3
ExtraTrees-PCA
Ensemble
60%
MLP-RFE
Neural
68%
Ridge-Poly
Linear
76%
AdaBoost-Select
Ensemble
58%
SGD-RFE
Linear
66%
ExtraTree-PCA
Tree
74%
LinearSVC-Best
SVM
56%
XGB-RFE
Ensemble
64%
RF-Select
Ensemble
72%
Accuracy on your data

90%

What drives the prediction
Recency91%
Plan type69%
Support tickets53%
Tenure34%
Illustrative loop for clarity. Live training evaluates far more candidates on your actual data.
02 / Genetic programming

What is genetic programming?

Genetic programming is an evolutionary search modeled after natural selection. Just as biology favors traits that improve survival, GP favors ML pipelines that score better on your data.

01

Initialization

A diverse set of candidate pipelines is created, each with different preprocessing, feature selection, and learning algorithms.

02

Evaluation

Each pipeline is trained and scored on your data with metrics like accuracy, precision, recall, and F1.

03

Evolution

Top pipelines reproduce through crossover and mutation. The cycle repeats across generations toward stronger solutions.

03 / Search space

What the engine explores

When you upload labeled data, EasyDeploy AI evaluates thousands of candidate pipelines in parallel, mixing preprocessing, feature selection, and algorithms across generations.

01

Data preprocessing

Scaling and normalization (standardization, min-max, robust), plus feature transforms and polynomial expansions.

02

Feature selection

Dimensionality reduction such as PCA, statistical selectors, and recursive or threshold-based pruning.

03

Learning algorithms

Tree ensembles, linear and regularized models, neighbors, neural nets, and support vector machines.

Operators and models may vary by task, dataset, and plan configuration.

04 / Under the hood

Key technical features

Genetic programming runs a repeatable loop: populate, evaluate, select elites, then crossover and mutate into the next generation.

Genetic programming cycle

Our engine is built on top of TPOT. Top pipelines survive each generation and become the parents that create the next set of models to explore. See open source credits.

1. Populate
2. Evaluate
3. Select elites
4. Breed next gen
5. Next generation

Parents plus their children become Generation 2, then the cycle repeats

Generation 2 population

Parent

ExtraTrees-PCA

Carried forward from Gen 1

MinMaxScaler
PCA
ExtraTrees

CV fitness

76%

Parent

GradBoost-Best

Carried forward from Gen 1

StandardScaler
SelectKBest
GradientBoosting

CV fitness

72%

Child

ExtraTrees-SelectKBest

New · from ExtraTrees-PCA + GradBoost-Best

MinMaxScaler
SelectKBest
ExtraTrees

CV fitness

84%

Child

ExtraTrees-RFE

New · from ExtraTrees-PCA (mutated)

MinMaxScaler
RFE
ExtraTrees

CV fitness

81%

Child

GradientBoosting-VarianceThreshold

New · from GradBoost-Best + DecTree-Var

StandardScaler
VarianceThreshold
GradientBoosting

CV fitness

78%

Parent

DecTree-Var

Carried forward from Gen 1

RobustScaler
VarianceThreshold
DecisionTree

CV fitness

68%

Illustrative loop. Production runs evaluate far larger populations across many generations.
01

Parallel evaluation

Hundreds of pipelines train and validate in parallel each generation, shortening the search across candidates.

02

Evolutionary selection

Elitism keeps top performers while tournament selection chooses parents, balancing strength and diversity.

03

Crossover & mutation

Operators and hyperparameters recombine and mutate so the search both refines winners and explores new stacks.

04

Feature importance

Every winning pipeline ships with feature importance so you can see drivers and defend the score to stakeholders.

05

Fitness-driven search

Task-appropriate metrics decide survival. Higher-fitness pipelines are more likely to be retained and refined.

05 / Why it matters

Finding the best model is only half the job. We also deploy it as an invokable production service so predictions are usable immediately.

Ask from the tools your team already uses. The model answers with a clear ranked list, so finance, RevOps, and operators can act today without a dedicated machine learning team.

Laptop showing an assistant asked which customers may churn, with a ranked risk list on screen
06 / Keep going

Explore more

See this technology on a real dataset, or check whether your data is ready to train.

07 / Start

Ready to get started?

Book a demo with your team, or start free and run your first model from Claude.