Files
yaoweiprcandClaude Sonnet 5.5 8e5e10bb89 feat(insomnia-data): add encrypted field definitions (phase 2)
Add the encrypted() mark and getEncryptedFieldPaths(), which derives the
encrypted field paths from a Zod model schema with an exhaustive walk over
the Zod node kinds (unknown kinds and unaddressable marks throw instead of
being skipped). getEncryptedFieldPathsByType() / getEncryptedFieldPathsForType()
build the path table for every model type.

Mark the sensitive fields of Request (and the schemas that share its
authentication: RequestGroup, WebSocketRequest, SocketIORequest, McpRequest),
CookieJar and GrpcRequest, and add temporary encryptedFields arrays for
ClientCertificate, CloudCredential, GitCredentials, OAuth2Token and
RequestVersion until they move to Zod.

The hook path walker supports arrays of arrays, and the read hook logs
failures after parsing without logging the line. Update the design doc to
match the implementation.

Co-Authored-By: Claude Sonnet 5.5 <noreply@anthropic.com>
2026-11-02 18:00:59 +08:00
..

insomnia-data

A runtime-agnostic data layer for Insomnia, based on interface + IoC.

Core idea

  • src/: runtime-agnostic contracts (IDatabase, Services, model metadata/types)
  • node-src/: Node/main concrete implementations (createNedbDatabase, servicesNodeImpl)
  • entry points wire once:
    • initDatabase(impl)
    • initServices(impl)

After wiring, business code always uses the same APIs: database, services, models.

Process flows

Database (main / renderer / inso)

flowchart LR
    subgraph Renderer
        R0[initDatabase] --> R1[clientDatabase implementation]
        R2[feature code] --> R3[database from insomnia-data]
        R3 --> R1
        R1 --> R4[window.database.invoke]
        R4 --> R5[ipcRenderer.invoke database.invoke]
    end

    subgraph Main
        M0[initDatabase] --> M1[mainDatabase implementation]
        M1 --> M2[createNedbDatabase impl]
        M2 --> M3[(NeDB)]
        M4[main feature code] --> M5[database from insomnia-data]
        M5 --> M1
        M6[ipcMain.handle database.invoke] --> M1
        M1 --> M7[webContents.send db.changes]
    end

    subgraph Inso
        I0[initDatabase] --> I1[inso database implementation]
        I1 --> I2[createNedbDatabase impl]
        I2 --> I3[(NeDB)]
        I4[inso feature code] --> I5[database from insomnia-data]
        I5 --> I1
    end

    R5 --> M6
    M7 -.notify.-> R2

Services (main / renderer / inso)

flowchart LR
    subgraph Renderer
        R0[initServices] --> R1[preload servicesProxy implementation]
        R2[feature code] --> R3[services from insomnia-data]
        R3 --> R1
        R1 --> R4[ipcRenderer.invoke services.invoke]
    end

    subgraph Main
        M0[initServices] --> M1[servicesNodeImpl]
        M2[feature code] --> M3[services from insomnia-data]
        M3 --> M1
        M1 --> M4[service logic]
        M4 --> M5[database]
        M5 --> M6[(NeDB)]
        M7[ipcMain.handle services.invoke] --> M1
    end

    subgraph Inso
        I0[initServices] --> I1[servicesNodeImpl]
        I2[feature code] --> I3[services from insomnia-data]
        I3 --> I1
        I1 --> I6[(NeDB)]
    end

    R4 --> M7

Renderer services path:

services.xxx -> preload proxy -> IPC -> main handler -> servicesNodeImpl -> database.

Why this design

  • Same API across runtimes: main, renderer, inso.
  • Feature code is decoupled from Electron/IPC/NeDB details.
  • Renderer has a safer boundary (bridge + IPC, no direct DB internals and node API access).
  • Easy to test or swap implementations by injecting at startup.

Minimal usage

Main

import { initDatabase, initServices } from 'insomnia-data';
import { mainDatabase } from '~/main/database.main';
import { servicesNodeImpl } from 'insomnia-data/node';

await initDatabase(mainDatabase);
initServices(servicesNodeImpl);

Renderer

import { initDatabase, initServices } from 'insomnia-data';
import { clientDatabase } from '~/ui/database.client';

await initDatabase(clientDatabase);
initServices(window._dataServices);

Inso / Node

import { initDatabase, initServices } from 'insomnia-data';
import { createNedbDatabase, servicesNodeImpl } from 'insomnia-data/node';

await initDatabase(createNedbDatabase());
initServices(servicesNodeImpl);

Consuming

import { services, models, type Request } from 'insomnia-data';

const mcpRequest = await services.mcpRequest.create({ url: 'http://localhost:3000' });
const all = await services.mcpRequest.all();

const request: Request = {};

const requestType = models.request.type;