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Modules and Suites
Why modularization matters in Zova
Zova organizes frontend code into modules and suites so business code can scale without collapsing into one large undifferentiated app surface.
That matters for:
- business decoupling
- reuse of feature units
- clear bundle boundaries
- team-level work decomposition
- namespace isolation
Module as the core business unit
In Zova, a module groups related pages, components, config, locale, API resources, and other frontend assets into one coherent feature boundary.
A module is not just a folder. It is a unit of architecture, naming, and bundling.
Why modules help
Representative benefits include:
- clearer business boundaries
- easier reuse across systems
- reduced naming conflicts through namespace isolation
- more natural async bundle boundaries during build
Module naming convention
Zova modules follow a naming model such as:
text
FullName: zova-module-{providerId}-{moduleName}
ShortName: {providerId}-{moduleName}This naming system is important because it supports both architectural clarity and bean/scope identity across module boundaries.
Suite as a multi-module boundary
A suite groups several related modules into a larger business scenario.
Representative examples might correspond to areas such as:
- e-commerce
- CRM
- supply chain
- shared application foundations
A suite is therefore not merely a package wrapper. It is a business-level composition boundary.
Suite naming convention
Suites follow a similar naming model:
text
FullName: zova-suite-{providerId}-{suiteName}
ShortName: {providerId}-{suiteName}Create modules and suites
Representative CLI entrypoints are:
bash
npm run zova :create:module moduleName -- [--suite=]
npm run zova :create:suite suiteNameThat matters because the CLI already knows the intended source-tree conventions and should be preferred over ad hoc manual scaffolding.
Directory structure
The project directory structure expresses this modular architecture directly.
Representative areas include:
src/modulesrc/module-vendorsrc/suitesrc/suite-vendor
This makes frontend architecture visible in the source tree rather than hiding it behind build-only conventions.
Representative source tree
text
project
├── env
├── src
│ ├── front
│ │ └── config
│ ├── module
│ ├── module-vendor
│ ├── suite
│ │ ├── a-demo
│ │ └── a-home
│ │ └── modules
│ │ ├── home-base
│ │ ├── home-icon
│ │ ├── home-indexadmin
│ │ └── home-layoutadmin
│ └── suite-vendorA practical convention from the legacy guidance is that a-demo can host demo or disposable exploratory code, while suites such as a-home act as the normal starting point for real application growth.
Import suffixes in Zova modules
Zova application TypeScript/TSX source uses relative ESM specifiers that name the actual source target: .ts for a .ts file and .tsx for a .tsx file.
ts
import type { ModelStudent } from '../model/student.ts';
import { RenderCard } from './render.card.tsx';This applies to authored and generated application source: ordinary and type-only imports, relative re-exports, module tests, frontend entry/config source, and generated metadata that imports application code. It includes module packages under zova/src/module/**, zova/src/module-vendor/**, zova/src/suite/**/modules/**, and zova/src/suite-vendor/**/modules/**. The existing .ts/.tsx imports in zova/packages-utils/** and zova/packages-zova/** remain unchanged.
CLI templates and generators must emit these actual source suffixes in application source. Refresh generated metadata and consumers through the owning CLI rather than hand-editing them. If output still names an emitted .js/.jsx file for a TypeScript target, fix the owning generation path and regenerate.
This is not a rule to rename every JavaScript import. Bare package names, assets, real JavaScript targets, compiled runtime loaders, and package exports keep their existing specifiers. Do not apply a repository-wide replacement across Vona, dependencies, or build artifacts.
Module and suite boundaries in practice
A practical mental model is:
- use a module for a coherent feature unit
- use a suite when several modules belong to one larger business scenario
- use the source tree as a reflection of real architecture, not only file storage
Relationship to frontend build behavior
A module is also a natural async bundle boundary.
That means modularization is not only about code organization. It also affects how frontend output is built, loaded, and maintained.
Package-level module metadata
A module package can also declare metadata in package.json through zovaModule, for example to describe inter-module dependencies or bundle behavior.
Representative patterns include:
json
{
"name": "zova-module-training-student",
"zovaModule": {
"dependencies": {
"a-zova": "5.0.0"
}
}
}json
{
"name": "zova-module-a-model",
"zovaModule": {
"bundle": {
"vendors": [
{
"match": ["@tanstack/query-core", "@tanstack/vue-query"],
"output": "tanstack-query"
}
]
}
}
}This reinforces that modules are not merely folders. They are explicit package, dependency, and bundle boundaries.
Relationship to other frontend guides
Read this together with:
- Suites and Modules for the cross-stack suite-first decision path in the monorepo
- IoC and Beans
- Module Scope
- Frontend Scripts
- Reference Package Map
These guides explain how modules connect to bean identity, scope-based resources, and monorepo layout.
Implementation checks for module and suite changes
When editing or creates frontend code, ask:
- does this belong in an existing module or a new one?
- is this really one feature unit, or should it become part of a suite?
- does the naming follow Zova’s module/suite conventions?
- do relative imports and re-exports in authored and regenerated application source name actual
.ts/.tsxtargets, while preserving bare packages, assets, compiled runtime loaders, and package exports? - will the chosen placement preserve the intended architectural and bundle boundaries?
That helps AI keep frontend growth aligned with Zova’s modular system instead of falling back to generic folder expansion.