More Memory. Less Context.

Hypernym compresses language into high-fidelity summaries that persist across time, agents, and tools.Cut token bloat. Keep meaning. Power long-term context with fewer inputs.

# Basic request
curl -X POST https://api.hypernym.ai/analyze_sync \
curl -H "Content-Type: application/json" \
curl -H "X-API-Key: YOUR_API_KEY" \
-d '{
"essay_text": "Hi, thank you for calling Radical Toys! I'd be happy to help with your shipping or returns issue.",
}'

Fix memory where it actually breaks.

Most memory problems start before inference.We fix the source, not the symptoms.

01.

Context isn't memory.

Token savings only matter if you keep what matters. Hypernym compresses text into structured, high-fidelity memories—built to persist across time, agents, and retrieval workflows.

COMPRESSION FOR RETENTION, NOT JUST REDUCTION
02.

Flaky output starts with inconsistent input.

Hypernym keeps structure, semantics, and task intent aligned—so agents don't veer, re-ask, or spiral. Your chains stay on track, even across context boundaries.

STABLE INPUTS MEAN STABLE AGENTS
03.

Don't fix it later. Store it right.

Prompt scaffolding, RAG tuning, feedback loops—all fragile without clean input. Hypernym makes everything downstream easier by solving the memory problem before inference even begins.

DOWNSTREAM SIMPLICITY STARTS UPSTREAM

Memory Done Right

Preserve

Semantic structure and speaker intent—stable across sessions, tools, and models.

Compress

40–80% token reduction with tunable fidelity.

Verify

Similarity-tested, auditable, and safe for reuse across chains and time.

Hypernym in Action

From logs and docs to transcripts and papers, Hypernym rewrites context with fewer tokens and better recall.

Original Input

This paper explores the intersection of deep learning and natural language processing for semantic compression. We propose a novel architecture that combines transformer-based encoders with specialized decoders optimized for information preservation. Our experiments on multiple datasets demonstrate that our approach achieves state-of-the-art compression ratios while maintaining semantic fidelity. We evaluate our method using both automated metrics and human evaluations, showing significant improvements over baseline methods. The results suggest that our approach can be effectively applied to various domains including scientific literature, legal documents, and conversational data.

Hypernym Output

Deep learning for semantic compression.

0focus on advanced algorithms for data processing
1reducing data size while preserving meaning
2utilizing attention mechanisms for better context
3ensuring key data remains intact after compression
Token Reduction
68.6%
Similarity Score
0.94
Token Count
86 → 27

You don't need a bigger model.
You need stronger meaning.