Privacy
Performance
Polynomial Precision

One encoder.
Storage, analytics and governance together.

Polygen fits a small model to each window of your data and stores it as a token. The token is smaller, and it stays searchable, auditable and ready to train on. Raw records never leave your environment.
Problem

Data infrastructure wasn't built for the volumes you're running today.

Storage, transmission, and processing layers were designed independently. Each one solves its own problem. As volumes compound, the cracks between them turn into cost. You pay to store the data, you pay again to move it, and you pay again to prepare it before anything useful runs on it.

Conventional compression helps with the first line and breaks the next two. Compressed bytes are opaque, so analytics and AI force a full decode before any work can run. The compression and the work cancel each other out.
Solution

One encoding layer. Three immediate wins.

Datasent encodes any data, tabular, sensor, time-series, images, and video, into a single lossless token format. The same representation delivers across storage, transmission, and compute.

Storage

Compress Losslessly
‍
Lossless tokens shrink tabular and telemetry data 5 to 11x, measured, with every byte exactly recoverable. Coefficient-only archives reach 50 to 250x on sensor streams, and up to 3,000x on smooth sensor data.

Bandwidth

Raw data stays local

A shared model basis is agreed once between environments. After that, only the residual (the unpredictable part) crosses the network. The original is reconstructed exactly on the other side. Raw data never leaves the source environment.

Analytics & AI

Skip the decode step

Tokens are sufficient statistics for trend analysis, anomaly detection, similarity search, model training, and inference. Models approach raw-data accuracy at a fraction of the data volume, latency, and cost.

Proven on vision-language models and multimodal RAG.

The same encoder compresses the visual tokens a vision-language model attends over. Measured end to end on Qwen2-VL-7B, on public benchmarks, against the un-spliced baseline.

+8.4 points of accuracy

ScienceQA on Qwen2-VL-7B at the recommended operating point, with 41% fewer attention FLOPs. One rank-16 LoRA trained on 300 images, and it transfers to MMMU, VQAv2 and DocVQA without retraining.

~71% fewer attention FLOPs

At the compression operating point accuracy is still +7.4 points and the stored visual representation is 7.5x smaller. A FLOP count, not wall-clock: single-shot wall-clock savings are not claimed.

Encode once, query many

A visual corpus stored as polygen descriptors is 5.5x smaller than cached fp16 embeddings (10.4 MB against 56.7 MB), answers the same questions, and serves about 3.7x more requests per GPU on video frames.
Process

How Datasent works

Lossless

Every byte recoverable.

Data is segmented and fitted against a deterministic basis. The unpredictable part (the residual) is stored exactly. Reconstruction is mathematically exact, not approximate. If the basis captures nothing, the residual still recovers the original at full fidelity.
Local

Raw data stays put.

Both environments agree on the basis upfront. Only the residual and a small metadata payload travel. The basis carries most of the information and is regenerated on each side rather than transmitted. Raw records never cross a network boundary.
Limitless

Usable, not just stored.

The coefficient matrix inside each token is a sufficient statistic for trend analysis, anomaly detection, similarity search, model training, and inference. Analytics and AI run on the tokens directly, with no decode step in front of every workload.
Use Cases

Who it's Built For

Business & Enterprise

Understand data opportunities that were previously out of reach.
Explore productBusiness & Enterprise

Researchers & Academics

Dive into how privacy-first computation works.
View researchResearchers & Academics

Developers

See the tech and code in action.
Models and demos ↗Developers
White Paper

Deep dive into Datasent's approach

The white paper covers the full mathematical framework: lossless tokenization, adaptive
segmentation, token-space computation, and zero-knowledge proof compatibility. No proprietary
dependencies. No lossy trade-offs.

The next number should come from your data.

Every number on this site is a measurement with its scope attached. We would rather measure your data than estimate it: a 30-minute scoping call maps your data shapes and constraints to a concrete pilot, and a hosted evaluation instance follows in days, with nothing to install.
Questions? Reach us at