NPM Package Integration Analysis: sublinear-time-solver v1.5.0

Agent: 2 / NPM Package Integration Analysis Date: 2026-02-20 Scope: All npm packages in the ruvector monorepo, dependency overlap, type compatibility, and integration patterns with sublinear-time-solver v1.5.0.

1. All NPM Packages Found in ruvector

1.1 Workspace Root

Package	Location
`@ruvector/workspace` (private)	`/home/user/ruvector/npm/package.json`

The monorepo uses npm workspaces rooted at /home/user/ruvector/npm with all publishable packages under npm/packages/*.

1.2 Primary Published Packages (npm/packages/*)

Package Name	Version	Description	Has Types
`ruvector`	0.1.99	Umbrella package with native/WASM/RVF fallback	Yes
`@ruvector/core` (packages)	0.1.30	HNSW vector database, napi-rs bindings	Yes
`@ruvector/core` (npm/core)	0.1.17	ESM/CJS wrapper over native bindings	Yes
`@ruvector/node`	0.1.22	Unified Node.js package (vector + GNN)	Yes
`@ruvector/cli`	0.1.28	Command-line interface	Yes
`@ruvector/rvf`	0.1.9	RuVector Format SDK	Yes
`@ruvector/rvf-solver`	0.1.1	Self-learning temporal solver (WASM)	Yes
`@ruvector/rvf-mcp-server`	0.1.3	MCP server (stdio + SSE)	Yes
`@ruvector/router`	0.1.28	Semantic router, napi-rs bindings	Yes
`@ruvector/raft`	0.1.0	Raft consensus	Yes
`@ruvector/replication`	0.1.0	Multi-node replication	Yes
`@ruvector/agentic-synth`	0.1.6	Synthetic data generator	Yes
`@ruvector/agentic-synth-examples`	(examples)	Usage examples for agentic-synth	Yes
`@ruvector/agentic-integration`	1.0.0	Distributed agent coordination	Yes
`@ruvector/graph-node`	2.0.2	Native graph DB, napi-rs bindings	Yes
`@ruvector/graph-wasm`	2.0.2	Graph DB WASM bindings	Yes
`@ruvector/graph-data-generator`	0.1.0	AI-powered graph data generation	Yes
`@ruvector/wasm-unified`	1.0.0	Unified WASM API surface	Yes
`@ruvector/ruvllm`	2.3.0	Self-learning LLM orchestration	Yes
`@ruvector/ruvllm-cli`	0.1.0	LLM inference CLI	Yes
`@ruvector/ruvllm-wasm`	0.1.0	Browser LLM inference (WebGPU)	Yes
`@ruvector/postgres-cli`	0.2.7	PostgreSQL vector CLI (pgvector replacement)	Yes
`@ruvector/burst-scaling`	1.0.0	GCP burst scaling system	Yes
`@ruvector/ospipe`	0.1.2	Screenpipe AI memory SDK	Yes
`@ruvector/ospipe-wasm`	0.1.0	OSpipe WASM bindings	Yes
`@ruvector/rudag`	0.1.0	DAG library with WASM	Yes
`@ruvector/scipix`	0.1.0	Scientific OCR client	Yes
`@ruvector/ruqu-wasm`	2.0.5	Quantum circuit simulator WASM	Yes
`@cognitum/gate`	0.1.0	AI agent safety coherence gate	Yes
`ruvector-extensions`	0.1.0	Embeddings, UI, exports, persistence	Yes
`ruvbot`	0.2.0	Enterprise AI assistant	Yes
`rvlite`	0.2.4	Lightweight vector DB (SQL/SPARQL/Cypher)	Yes

1.3 Native Platform Packages (optionalDependencies)

These are napi-rs platform-specific binary packages distributed via optionalDependencies:

ruvector-core-{linux-x64-gnu,linux-arm64-gnu,darwin-x64,darwin-arm64,win32-x64-msvc} (v0.1.29)
@ruvector/router-{linux-x64-gnu,...,win32-x64-msvc} (v0.1.27)
@ruvector/graph-node-{linux-x64-gnu,...,win32-x64-msvc} (v2.0.2)
@ruvector/ruvllm-{linux-x64-gnu,...,win32-x64-msvc} (v2.3.0)
@ruvector/gnn-node platform packages
@ruvector/attention-node platform packages
@ruvector/rvf-node platform packages

1.4 Crate-Level WASM Packages (crates/*)

Package	Version	Purpose
`@ruvector/wasm`	0.1.16	Core WASM (browser vector DB)
`@ruvector/attention-wasm`	(crate)	Attention mechanism WASM
`@ruvector/attention-unified-wasm`	(crate pkg)	Unified attention WASM
`@ruvector/economy-wasm`	(crate pkg)	Economy simulation WASM
`@ruvector/exotic-wasm`	(crate pkg)	Exotic features WASM
`@ruvector/learning-wasm`	(crate pkg)	Learning subsystem WASM
`@ruvector/nervous-system-wasm`	(crate pkg)	Nervous system WASM
`@ruvector/gnn-wasm`	(crate)	GNN WASM bindings
`@ruvector/graph-wasm`	(crate)	Graph WASM bindings
`@ruvector/router-wasm`	(crate)	Router WASM bindings
`@ruvector/tiny-dancer-wasm`	(crate)	Tiny Dancer WASM
`@ruvector/cluster`	0.1.0	Distributed clustering
`@ruvector/server`	0.1.0	HTTP/gRPC server

1.5 Example/Benchmark Packages

Package	Location
`@ruvector/benchmarks`	`/home/user/ruvector/benchmarks/package.json`
meta-cognition SNN demos	`/home/user/ruvector/examples/meta-cognition-spiking-neural-network/`
edge-net dashboard	`/home/user/ruvector/examples/edge-net/dashboard/`
neural-trader	`/home/user/ruvector/examples/neural-trader/`
wasm-react	`/home/user/ruvector/examples/wasm-react/`
rvlite dashboard	`/home/user/ruvector/crates/rvlite/examples/dashboard/`
sona wasm-example	`/home/user/ruvector/crates/sona/wasm-example/`

Total unique package.json files found: 90+

2. Package Dependency Overlap and Version Compatibility

2.1 Direct Dependency Overlap with sublinear-time-solver v1.5.0

The sublinear-time-solver v1.5.0 declares these dependencies:

@modelcontextprotocol/sdk ^1.18.1
@ruvnet/strange-loop ^0.3.0
strange-loops ^0.5.1
Express ecosystem

sublinear-time-solver Dep	ruvector Package	ruvector Version	Compatibility
`@modelcontextprotocol/sdk` ^1.18.1	`ruvector`	^1.0.0	CONFLICT: ruvector pins ^1.0.0; sublinear needs ^1.18.1. Semver-compatible if 1.18.x exists, but ruvector must upgrade its lower bound.
`@modelcontextprotocol/sdk` ^1.18.1	`@ruvector/rvf-mcp-server`	^1.0.0	Same conflict as above.
`express` (ecosystem)	`@ruvector/rvf-mcp-server`	^4.18.0	COMPATIBLE: Both use Express 4.x
`express` (ecosystem)	`ruvector-extensions`	^4.18.2	COMPATIBLE
`express` (ecosystem)	`@ruvector/agentic-integration`	^4.18.2	COMPATIBLE
`@ruvnet/strange-loop` ^0.3.0	(none)	N/A	NO OVERLAP: Not present in ruvector
`strange-loops` ^0.5.1	(none)	N/A	NO OVERLAP: Not present in ruvector

2.2 Shared Transitive Dependencies

Dependency	sublinear-time-solver	ruvector Packages Using It	Notes
`zod`	Likely via MCP SDK	`@ruvector/rvf-mcp-server` (^3.22.0), `@ruvector/agentic-integration` (^3.22.4), `ruvbot` (^3.22.4), `@ruvector/agentic-synth` (^4.1.13), `@ruvector/graph-data-generator` (^4.1.12)	WARNING: ruvector has a zod version split: some packages at 3.x, others at 4.x. The MCP SDK depends on zod 3.x.
`commander`	Not direct	`ruvector` (^11.1.0), `@ruvector/cli` (^12.0.0), `@ruvector/ruvllm` (^12.0.0), `@ruvector/postgres-cli` (^11.1.0), `rvlite` (^12.0.0), `ruvbot` (^12.0.0), `@ruvector/agentic-synth` (^11.1.0)	CLI packages only; version split between 11.x and 12.x but not a runtime concern for sublinear-time-solver.
`eventemitter3`	Not direct	`@ruvector/raft` (^5.0.4), `@ruvector/replication` (^5.0.4), `ruvbot` (^5.0.1)	No overlap.
`typescript`	Dev dep	All packages (^5.0.0 - ^5.9.3)	COMPATIBLE: All use TS 5.x
`@types/node`	Dev dep	All packages (^20.x)	COMPATIBLE

2.3 Version Compatibility Matrix

Concern	Status	Action Required
`@modelcontextprotocol/sdk` version skew	MEDIUM RISK	ruvector currently pins ^1.0.0 while sublinear-time-solver requires ^1.18.1. Since ^1.0.0 allows 1.18.x, npm will resolve to 1.18.x+ if available, but this needs verification. Recommend upgrading ruvector's spec to ^1.18.1 for explicit compatibility.
Node.js engine	COMPATIBLE	Both require Node.js >= 18
TypeScript version	COMPATIBLE	ruvector workspace uses ^5.3.0+; sublinear-time-solver is compatible
zod version split	LOW RISK	MCP SDK binds zod 3.x internally. The ruvector packages using zod 4.x are independent (agentic-synth, graph-data-generator). No direct conflict path.

3. TypeScript Type Compatibility

3.1 TypeScript Configuration Landscape

The ruvector monorepo uses multiple TypeScript configuration strategies:

Target	Module	moduleResolution	Used By
ES2020	CommonJS	node	`ruvector`, workspace root, `rvf-solver`, wasm wrapper
ES2022	Node16	Node16	`@ruvector/core` (npm/core), `@ruvector/rvf-mcp-server`
ES2020	CommonJS	node	`@ruvector/burst-scaling`, `@ruvector/postgres-cli`
ES2022	NodeNext	NodeNext	`@ruvector/rvf-mcp-server`

Key observation: The monorepo is split between CommonJS-first packages (older) and ESM-first packages (newer). The sublinear-time-solver would need to be compatible with both module systems.

3.2 Type Surface Overlap with sublinear-time-solver

The sublinear-time-solver exports these types: SolverConfig, MatrixData, SolutionStep, BatchSolveRequest, BatchSolveResult, SublinearSolver, SolutionStream, WasmModule.

Comparison with ruvector types:

sublinear-time-solver Type	Closest ruvector Equivalent	Package	Compatibility Notes
`SolverConfig`	`TrainOptions`	`@ruvector/rvf-solver`	Different shape. `TrainOptions` has `count`, `minDifficulty`, `maxDifficulty`, `seed`. `SolverConfig` is a more general configuration type. These are complementary, not conflicting.
`MatrixData`	`Float32Array` / `number[]` (vector types)	`ruvector` core types	ruvector uses `number[]` and `Float32Array` for vector data in `VectorEntry.vector` and `RvfIngestEntry.vector`. `MatrixData` is a higher-level abstraction. No conflict.
`SolutionStep`	`CycleMetrics` / `AcceptanceModeResult`	`@ruvector/rvf-solver`	Different granularity. `SolutionStep` likely represents individual solver steps; `CycleMetrics` represents per-cycle aggregates. Complementary.
`BatchSolveRequest`	`BatchOCRRequest` (pattern)	`@ruvector/scipix`	Structural similarity (batch request pattern) but completely different domains. No conflict.
`BatchSolveResult`	`RvfIngestResult` / `TrainResult`	`@ruvector/rvf`, `@ruvector/rvf-solver`	Different semantics. The result shape pattern (counts, metrics) is common across the codebase.
`SublinearSolver` (class)	`RvfSolver` (class)	`@ruvector/rvf-solver`	Most significant overlap. Both are solver classes with async factory creation (`createSolver()` vs `RvfSolver.create()`), WASM backends, and destroy lifecycle. Integration should expose both as named exports or compose them.
`SolutionStream` (async iterator)	None	N/A	Novel capability. No existing ruvector package provides async iteration over solver results. This is a purely additive feature.
`WasmModule` (SIMD)	WASM modules throughout	`@ruvector/wasm`, all `-wasm` packages	ruvector has extensive WASM infrastructure. The `WasmModule` interface with SIMD support aligns with ruvector's existing WASM + SIMD strategy (`@ruvector/wasm` builds with `--features simd`).

3.3 Interface Structural Compatibility

ruvector's core types follow these conventions:

// Config pattern: plain objects with optional fields
interface DbOptions {
  dimension: number;
  metric?: 'cosine' | 'euclidean' | 'dot';
  hnsw?: { m?: number; efConstruction?: number; efSearch?: number };
}

// Result pattern: objects with counts and metrics
interface RvfIngestResult {
  accepted: number;
  rejected: number;
  epoch: number;
}

// Factory pattern: static async create()
class RvfSolver {
  static async create(): Promise<RvfSolver>;
  destroy(): void;
}

The sublinear-time-solver factory function createSolver() returning Promise<SublinearSolver> matches the static async create() pattern used by RvfSolver. This is a strong structural compatibility signal.

3.4 Module Format Compatibility

Feature	sublinear-time-solver	ruvector Packages
ESM exports	Main entry, MCP module, core, tools	22 packages support ESM
CJS exports	Likely via dual packaging	28 packages support CJS
Type declarations	`.d.ts` included	All packages include `.d.ts`
Conditional exports	Yes (package.json `exports` map)	Yes, extensively used

Assessment: Full compatibility. The sublinear-time-solver export map (main, MCP module, core, tools) maps well to ruvector's established exports field pattern.

4. API Surface Overlap and Complementary Features

4.1 Overlapping Capabilities

Capability	sublinear-time-solver	ruvector Package	Overlap Degree
Solver/optimization	Core solver class	`@ruvector/rvf-solver`	HIGH - Both provide solver classes with WASM backends
MCP integration	MCP module export	`@ruvector/rvf-mcp-server`	HIGH - Both expose MCP tools, both depend on `@modelcontextprotocol/sdk`
WASM + SIMD	`WasmModule` with SIMD	`@ruvector/wasm`, `@ruvector/wasm-unified`	MEDIUM - Infrastructure overlap, but different computation targets
Express middleware	Express ecosystem deps	`@ruvector/rvf-mcp-server`, `ruvector-extensions`, `@ruvector/agentic-integration`	MEDIUM - Both can serve HTTP endpoints
Batch processing	`BatchSolveRequest/Result`	`VectorDBWrapper.insertBatch()`, `RvfSolver.train()`	LOW - Different domains (solving vs indexing)

4.2 Complementary Features (sublinear-time-solver adds)

Feature	Description	Benefit to ruvector
`SolutionStream` async iterator	Streaming solver results	ruvector has no equivalent streaming solver pattern. Enables real-time progress for long-running optimizations.
Sublinear-time algorithms	O(sqrt(n)) or O(log n) solving	Complements ruvector's HNSW O(log n) search with solver-level sublinear guarantees.
`@ruvnet/strange-loop` integration	Self-referential reasoning patterns	Novel capability not present in ruvector. Extends the self-learning architecture (SONA, EWC, Thompson Sampling) with recursive reasoning.
`strange-loops` library	Fixed-point iteration patterns	Mathematically complements the rvf-solver's three-loop architecture.
Tools namespace exports	Pre-packaged MCP tool definitions	Reduces boilerplate when registering solver tools in MCP servers.

4.3 Complementary Features (ruvector provides to sublinear-time-solver)

Feature	Package	Benefit
HNSW vector indexing	`@ruvector/core`	Fast nearest-neighbor lookup for solver state caching
GNN graph processing	`@ruvector/gnn-node`	Graph-structured problem representation
Raft consensus	`@ruvector/raft`	Distributed solver coordination
Attention mechanisms	`@ruvector/attention-*`	39 attention variants for solver guidance
DAG scheduling	`@ruvector/rudag`	Task dependency resolution for solver pipelines
ReasoningBank/PolicyKernel	`@ruvector/rvf-solver`	Existing self-learning infrastructure
Persistent vector storage	`@ruvector/rvf`	Durable storage for solver state vectors

5. Integration Patterns

5.1 Pattern A: Peer Dependency (Recommended for Library Consumers)

{
  "peerDependencies": {
    "sublinear-time-solver": "^1.5.0"
  },
  "peerDependenciesMeta": {
    "sublinear-time-solver": {
      "optional": true
    }
  }
}

Rationale: This follows the established pattern used by @ruvector/agentic-synth (which uses ruvector as an optional peer dependency) and ruvector-extensions (which uses openai and cohere-ai as optional peers). The solver is a high-level capability that consumers may or may not need.

Best for: The ruvector umbrella package or @ruvector/rvf-solver.

5.2 Pattern B: Optional Dependency (For Internal Integration)

{
  "optionalDependencies": {
    "sublinear-time-solver": "^1.5.0"
  }
}

Rationale: Follows the pattern used by @ruvector/rvf (which lists @ruvector/rvf-solver as an optional dependency). The solver is loaded at runtime with a graceful fallback if unavailable. This matches ruvector's existing three-tier fallback strategy (native -> rvf -> stub).

Best for: @ruvector/rvf-mcp-server which could conditionally expose sublinear solver tools.

5.3 Pattern C: Re-export Wrapper (For Unified API)

Create a thin wrapper in ruvector that re-exports the solver with ruvector-specific type adapters:

// In ruvector/src/core/sublinear-wrapper.ts
let SublinearSolver: any;
try {
  const mod = require('sublinear-time-solver');
  SublinearSolver = mod.SublinearSolver;
} catch {
  SublinearSolver = null;
}

export function isSublinearAvailable(): boolean {
  return SublinearSolver !== null;
}

export async function createSublinearSolver(config?: SolverConfig): Promise<any> {
  if (!SublinearSolver) {
    throw new Error(
      'sublinear-time-solver is not installed.\n' +
      '  Run: npm install sublinear-time-solver\n'
    );
  }
  const { createSolver } = require('sublinear-time-solver');
  return createSolver(config);
}

Rationale: Matches the exact pattern in /home/user/ruvector/npm/packages/ruvector/src/index.ts (lines 26-77) where the implementation is auto-detected with try/catch and a fallback.

5.4 Pattern D: MCP Tool Composition

The @ruvector/rvf-mcp-server already has @modelcontextprotocol/sdk and express. The sublinear-time-solver's MCP module can be composed alongside existing RVF tools:

// In rvf-mcp-server, register both tool sets
import { createSolver } from 'sublinear-time-solver/mcp';
import { rvfTools } from '@ruvector/rvf';

const server = new McpServer();
// Register existing RVF tools
rvfTools.forEach(tool => server.addTool(tool));
// Register sublinear solver tools
const solverTools = createSolver.getTools();
solverTools.forEach(tool => server.addTool(tool));

5.5 Pattern E: Bundling Strategy

For WASM bundling, both sublinear-time-solver and ruvector follow the wasm-pack output convention. Integration should:

Use the exports field to expose WASM modules separately
Allow tree-shaking of unused solver features
Support both web and nodejs WASM targets

The existing build infrastructure (tsup, esbuild, tsc) in ruvector packages already handles dual CJS/ESM output and .wasm file co-location.

6. Recommended package.json Changes

6.1 For `ruvector` (Umbrella Package)

File: /home/user/ruvector/npm/packages/ruvector/package.json

{
  "dependencies": {
    "@modelcontextprotocol/sdk": "^1.18.1",  // UPGRADE from ^1.0.0
    "@ruvector/attention": "^0.1.3",
    "@ruvector/core": "^0.1.25",
    "@ruvector/gnn": "^0.1.22",
    "@ruvector/sona": "^0.1.4",
    "chalk": "^4.1.2",
    "commander": "^11.1.0",
    "ora": "^5.4.1"
  },
  "optionalDependencies": {
    "@ruvector/rvf": "^0.1.0",
    "sublinear-time-solver": "^1.5.0"  // ADD as optional
  }
}

Rationale: Adding as optionalDependency follows the existing @ruvector/rvf pattern. The MCP SDK version must be upgraded to satisfy both consumers.

6.2 For `@ruvector/rvf-mcp-server` (MCP Server)

File: /home/user/ruvector/npm/packages/rvf-mcp-server/package.json

{
  "dependencies": {
    "@modelcontextprotocol/sdk": "^1.18.1",  // UPGRADE from ^1.0.0
    "@ruvector/rvf": "^0.1.2",
    "express": "^4.18.0",
    "zod": "^3.22.0"
  },
  "optionalDependencies": {
    "sublinear-time-solver": "^1.5.0"  // ADD for tool composition
  }
}

6.3 For `@ruvector/rvf-solver` (Solver Package)

File: /home/user/ruvector/npm/packages/rvf-solver/package.json

{
  "peerDependencies": {
    "sublinear-time-solver": "^1.5.0"  // ADD as optional peer
  },
  "peerDependenciesMeta": {
    "sublinear-time-solver": {
      "optional": true
    }
  }
}

Rationale: As the most semantically related package, @ruvector/rvf-solver should declare the solver as an optional peer dependency. This enables type-safe integration when both are installed without forcing a dependency.

6.4 Workspace-Level devDependency

File: /home/user/ruvector/npm/package.json

{
  "devDependencies": {
    "@types/node": "^20.10.0",
    "@typescript-eslint/eslint-plugin": "^6.13.0",
    "@typescript-eslint/parser": "^6.13.0",
    "eslint": "^8.54.0",
    "prettier": "^3.1.0",
    "sublinear-time-solver": "^1.5.0",  // ADD for workspace-wide type checking
    "typescript": "^5.3.0"
  }
}

6.5 New Exports Map Entry (if re-exporting from ruvector)

If the umbrella ruvector package chooses to re-export solver functionality:

{
  "exports": {
    ".": {
      "import": "./dist/index.mjs",
      "require": "./dist/index.js",
      "types": "./dist/index.d.ts"
    },
    "./solver": {
      "import": "./dist/core/sublinear-wrapper.mjs",
      "require": "./dist/core/sublinear-wrapper.js",
      "types": "./dist/core/sublinear-wrapper.d.ts"
    }
  }
}

7. Risk Assessment

7.1 Critical Issues

Issue	Severity	Mitigation
`@modelcontextprotocol/sdk` version conflict (^1.0.0 vs ^1.18.1)	HIGH	Upgrade ruvector packages to ^1.18.1. Test MCP server with new SDK version.
`@ruvnet/strange-loop` not in ruvector ecosystem	LOW	This is a transitive dependency of sublinear-time-solver only. No action needed unless ruvector wants to use it directly.

7.2 Compatibility Notes

Aspect	Status
Node.js engine (>=18)	All ruvector packages require >=18. Compatible.
TypeScript 5.x	All ruvector packages use 5.x. Compatible.
ESM/CJS dual output	sublinear-time-solver provides both. ruvector infrastructure supports both.
WASM loading	Both use standard patterns (dynamic import or direct load). Compatible with ruvector's WASM infrastructure.
Express 4.x	Shared across 3 ruvector packages and sublinear-time-solver. No conflict.

7.3 Testing Requirements

Verify @modelcontextprotocol/sdk ^1.18.1 is backward-compatible with ruvector's MCP usage
Test WASM module co-existence (sublinear-time-solver WASM + ruvector WASM modules)
Validate that zod version resolution works correctly with both zod 3.x (MCP SDK) and zod 4.x (agentic-synth)
Run the existing npm test across all workspaces after dependency changes

8. Summary

The sublinear-time-solver v1.5.0 integrates well into the ruvector monorepo:

One critical change needed: Upgrade @modelcontextprotocol/sdk from ^1.0.0 to ^1.18.1 in ruvector and @ruvector/rvf-mcp-server
Best integration pattern: Optional dependency in the umbrella ruvector package with a try/catch wrapper (Pattern C), combined with MCP tool composition in @ruvector/rvf-mcp-server (Pattern D)
Type compatibility: Strong structural compatibility. The factory pattern (createSolver() / RvfSolver.create()), WASM interfaces, and batch processing patterns all align
Novel capabilities added: SolutionStream async iteration, strange-loop reasoning, and sublinear-time algorithmic guarantees complement ruvector's existing self-learning infrastructure
No breaking changes required: All integration can be done via additive optional/peer dependencies

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NPM Package Integration Analysis: sublinear-time-solver v1.5.0

1. All NPM Packages Found in ruvector

1.1 Workspace Root

1.2 Primary Published Packages (npm/packages/*)

1.3 Native Platform Packages (optionalDependencies)

1.4 Crate-Level WASM Packages (crates/*)

1.5 Example/Benchmark Packages

2. Package Dependency Overlap and Version Compatibility

2.1 Direct Dependency Overlap with sublinear-time-solver v1.5.0

2.2 Shared Transitive Dependencies

2.3 Version Compatibility Matrix

3. TypeScript Type Compatibility

3.1 TypeScript Configuration Landscape

3.2 Type Surface Overlap with sublinear-time-solver

3.3 Interface Structural Compatibility

3.4 Module Format Compatibility

4. API Surface Overlap and Complementary Features

4.1 Overlapping Capabilities

4.2 Complementary Features (sublinear-time-solver adds)

4.3 Complementary Features (ruvector provides to sublinear-time-solver)

5. Integration Patterns

5.1 Pattern A: Peer Dependency (Recommended for Library Consumers)

5.2 Pattern B: Optional Dependency (For Internal Integration)

5.3 Pattern C: Re-export Wrapper (For Unified API)

5.4 Pattern D: MCP Tool Composition

5.5 Pattern E: Bundling Strategy

6. Recommended package.json Changes

6.1 For `ruvector` (Umbrella Package)

6.2 For `@ruvector/rvf-mcp-server` (MCP Server)

6.3 For `@ruvector/rvf-solver` (Solver Package)

6.4 Workspace-Level devDependency

6.5 New Exports Map Entry (if re-exporting from ruvector)

7. Risk Assessment

7.1 Critical Issues

7.2 Compatibility Notes

7.3 Testing Requirements

8. Summary

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NPM Package Integration Analysis: sublinear-time-solver v1.5.0

1. All NPM Packages Found in ruvector

1.1 Workspace Root

1.2 Primary Published Packages (npm/packages/*)

1.3 Native Platform Packages (optionalDependencies)

1.4 Crate-Level WASM Packages (crates/*)

1.5 Example/Benchmark Packages

2. Package Dependency Overlap and Version Compatibility

2.1 Direct Dependency Overlap with sublinear-time-solver v1.5.0

2.2 Shared Transitive Dependencies

2.3 Version Compatibility Matrix

3. TypeScript Type Compatibility

3.1 TypeScript Configuration Landscape

3.2 Type Surface Overlap with sublinear-time-solver

3.3 Interface Structural Compatibility

3.4 Module Format Compatibility

4. API Surface Overlap and Complementary Features

4.1 Overlapping Capabilities

4.2 Complementary Features (sublinear-time-solver adds)

4.3 Complementary Features (ruvector provides to sublinear-time-solver)

5. Integration Patterns

5.1 Pattern A: Peer Dependency (Recommended for Library Consumers)

5.2 Pattern B: Optional Dependency (For Internal Integration)

5.3 Pattern C: Re-export Wrapper (For Unified API)

5.4 Pattern D: MCP Tool Composition

5.5 Pattern E: Bundling Strategy

6. Recommended package.json Changes

6.1 For ruvector (Umbrella Package)

6.2 For @ruvector/rvf-mcp-server (MCP Server)

6.3 For @ruvector/rvf-solver (Solver Package)

6.4 Workspace-Level devDependency

6.5 New Exports Map Entry (if re-exporting from ruvector)

7. Risk Assessment

7.1 Critical Issues

7.2 Compatibility Notes

7.3 Testing Requirements

8. Summary

6.1 For `ruvector` (Umbrella Package)

6.2 For `@ruvector/rvf-mcp-server` (MCP Server)

6.3 For `@ruvector/rvf-solver` (Solver Package)