exa-data-handling
Manages Exa search result payloads, including content scoping, caching, and token budget optimization.
Install
mkdir -p .claude/skills/exa-data-handling && curl -L -o skill.zip "https://agentskills.codes/api/skills/download/5388" && unzip -o skill.zip -d .claude/skills/exa-data-handling && rm skill.zipInstalls to .claude/skills/exa-data-handling
Activation
This is the description your AI agent reads to decide when to run this skill — the better it matches your request, the more reliably it fires.
Implement Exa search result processing, content extraction, caching,Key capabilities
- →Control content extraction scope for cost management
- →Implement in-memory caching with TTL
- →Manage token budgets for LLM context windows
- →Deduplicate search results by domain and title
- →Extract structured data using summary schemas
How it works
This skill provides methods to process, cache, and format Exa search results to fit within LLM token constraints and improve performance.
Inputs & outputs
When to use exa-data-handling
- →Implement caching for search results
- →Manage token budgets for LLM context
- →Extract content from search metadata
- →Build citation pipelines
About this skill
Exa Data Handling
Overview
Manage search result data from Exa's neural search API. Covers content extraction scope control (text vs highlights vs summary), result caching with TTL, citation deduplication, token budget management for LLM context windows, and structured summary extraction.
Prerequisites
exa-jsSDK installed and configured- Optional:
lru-cachefor in-memory caching,ioredisfor Redis - Understanding of Exa content options (text, highlights, summary)
Instructions
Step 1: Control Content Extraction Scope
import Exa from "exa-js";
const exa = new Exa(process.env.EXA_API_KEY);
// Tier 1: Metadata only (cheapest, fastest)
async function searchMetadataOnly(query: string) {
return exa.search(query, {
type: "auto",
numResults: 10,
// No content options — returns URLs, titles, scores only
});
}
// Tier 2: Highlights only (balanced cost/value)
async function searchWithHighlights(query: string) {
return exa.searchAndContents(query, {
numResults: 10,
highlights: {
maxCharacters: 500,
query: query, // focus highlights on the original query
},
});
}
// Tier 3: Full text with character limit
async function searchWithText(query: string, maxChars = 2000) {
return exa.searchAndContents(query, {
numResults: 5,
text: { maxCharacters: maxChars },
highlights: { maxCharacters: 300 },
});
}
// Tier 4: Structured summary (LLM-generated per result)
async function searchWithSummary(query: string) {
return exa.searchAndContents(query, {
numResults: 5,
summary: { query: query },
// summary returns a concise LLM-generated summary per result
});
}
Step 2: Result Caching with TTL
import { LRUCache } from "lru-cache";
import { createHash } from "crypto";
const searchCache = new LRUCache<string, any>({
max: 500,
ttl: 1000 * 60 * 60, // 1 hour default
});
function cacheKey(query: string, options: any): string {
return createHash("sha256")
.update(JSON.stringify({ query, ...options }))
.digest("hex");
}
async function cachedSearch(query: string, options: any = {}, ttlMs?: number) {
const key = cacheKey(query, options);
const cached = searchCache.get(key);
if (cached) return cached;
const results = await exa.searchAndContents(query, options);
searchCache.set(key, results, { ttl: ttlMs });
return results;
}
Step 3: Token Budget Management for RAG
interface ProcessedResult {
url: string;
title: string;
score: number;
snippet: string;
tokenEstimate: number;
}
function processForRAG(results: any[], maxSnippetLength = 500): ProcessedResult[] {
return results.map(r => {
const snippet = (r.text || r.highlights?.join(" ") || r.summary || "")
.slice(0, maxSnippetLength);
return {
url: r.url,
title: r.title || "Untitled",
score: r.score,
snippet,
tokenEstimate: Math.ceil(snippet.length / 4),
};
});
}
function fitToTokenBudget(results: ProcessedResult[], maxTokens: number) {
const sorted = [...results].sort((a, b) => b.score - a.score);
const selected: ProcessedResult[] = [];
let tokenCount = 0;
for (const result of sorted) {
if (tokenCount + result.tokenEstimate > maxTokens) break;
selected.push(result);
tokenCount += result.tokenEstimate;
}
return { selected, tokenCount, dropped: sorted.length - selected.length };
}
// Usage: fit search results into a 4K token context window
const results = await exa.searchAndContents("query", {
numResults: 15,
text: { maxCharacters: 1500 },
});
const processed = processForRAG(results.results);
const { selected, tokenCount } = fitToTokenBudget(processed, 4000);
Step 4: Citation Deduplication
function deduplicateResults(results: any[]): any[] {
const seen = new Map<string, any>();
for (const result of results) {
const domain = new URL(result.url).hostname;
const key = `${domain}:${result.title}`;
if (!seen.has(key) || result.score > seen.get(key).score) {
seen.set(key, result);
}
}
return Array.from(seen.values());
}
Step 5: Structured Summary Extraction
// Use summary.schema for structured data extraction
const results = await exa.searchAndContents(
"YC-backed AI startups Series A 2025",
{
numResults: 10,
category: "company",
summary: {
query: "company name, funding amount, what they do",
// schema can define JSON structure for the summary output
},
}
);
// Each result.summary contains a structured summary
for (const r of results.results) {
console.log(`${r.title}: ${r.summary}`);
}
Error Handling
| Issue | Cause | Solution |
|---|---|---|
| Large response payload | Full text for many URLs | Use highlights or limit maxCharacters |
| Cache stale for news | Default TTL too long | Use 5-minute TTL for time-sensitive queries |
| Duplicate sources | Same article syndicated | Deduplicate by domain + title |
| Token budget exceeded | Too much context for LLM | Use fitToTokenBudget to trim by score |
Missing .text field | Content not requested | Use searchAndContents not search |
Examples
RAG-Optimized Search Pipeline
async function ragSearch(query: string, tokenBudget = 4000) {
const results = await cachedSearch(query, {
numResults: 15,
type: "neural",
text: { maxCharacters: 1500 },
highlights: { maxCharacters: 300, query },
});
const deduped = deduplicateResults(results.results);
const processed = processForRAG(deduped);
const { selected, tokenCount } = fitToTokenBudget(processed, tokenBudget);
return {
context: selected.map((r, i) =>
`[${i + 1}] ${r.title} (${r.url})\n${r.snippet}`
).join("\n\n---\n\n"),
sources: selected.map(r => ({ title: r.title, url: r.url })),
tokenCount,
};
}
Resources
Next Steps
For rate limit handling, see exa-rate-limits. For cost optimization, see exa-cost-tuning.
When not to use it
- →When real-time data is required without any caching
- →When raw, unformatted API responses are preferred
Prerequisites
Limitations
- →Cache TTL must be managed manually to avoid stale data
- →Token estimation is an approximation based on character count
How it compares
It focuses on data transformation and optimization for RAG pipelines rather than just executing the search.
Compared to similar skills
exa-data-handling side by side with the closest alternatives in the catalog.
| Skill | Installs | Updated | Safety | Difficulty |
|---|---|---|---|---|
| exa-data-handling (this skill) | 1 | 27d | Review | Intermediate |
| langchain | 26 | 8mo | Review | Intermediate |
| reasoningbank-with-agentdb | 5 | 9mo | Review | Intermediate |
| iterative-retrieval | 10 | 4mo | No flags | Advanced |
Try saying
Example prompts that trigger this skill in your AI assistant.
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