Non-disruptive compression for footage that already exists. The platform works only on landed recording files, replaces them in place on general-purpose CPU, and proves on every single file that nothing about them has changed.
In a working surveillance network the video management platform, the storage architecture and the retrieval workflow behave like a precision gear train. Anything that interrupts them is not an improvement, whatever it saves.
The incumbent video management platform, storage architecture and retrieval flow must not be changed or interrupted.
Public safety, transport, parks and financial environments under heavy regulation, with extremely long statutory retention periods.
Tens of thousands of streams continuously producing data, accumulating exponentially until centralised storage is at breaking point.
These boundaries are what make the platform deployable in regulated environments. They are architectural commitments, not configuration options.
Millisecond-level alignment keeps timeline scrubbing and positioning exact
H.264 and H.265 carried through unchanged, so no client installs a decoder
No frame dropping; original temporal smoothness locked in
No super-resolution and no scaling; original frame size locked
These four properties must be physically identical after compression. They are what keep the incumbent platform's indexing, playback and retrieval logic stable, and what make the footage defensible.
The guarantee they produce. Four invariants equal complete stability of the original video platform's index, playback and retrieval workflows — 100% of the time, with no operator retraining and no client-side changes.
A compression node produces a temporary file. If any gate fails, the temporary file is destroyed automatically and the source file is left completely untouched. The source sits behind what amounts to a safety glass cockpit.
The temporary file's container and basic playback are verified before its output is trusted for anything else.
Machine-level comparison of resolution, frame rate, codec and duration between the new and the original file.
PSNR and SSIM evaluated against the expected envelope. Falling short halts the process instead of replacing.
Preventive circuit-breaker. If picture degradation is detected — PSNR or SSIM below the expected envelope — processing halts before the source file is touched. Repeated failures permanently stop processing that file, safely retain the original and raise an alarm.
Verification is only half the story. The system also has to behave correctly when something goes wrong — and leave a route back for as long as the client wants one.
Hardware independence is what allows this to run inside a sealed government network and still scale to hundreds of terabytes of daily ingest.
General-purpose CPU instruction-set micro-architecture tuning keeps the algorithm fully decoupled from specific hardware. The platform can scale from dozens of compress nodes to thousands, supporting hundreds of terabytes of daily ingest.
Supports deployment in a 100% physically isolated network environment with no external access whatsoever.
Throughput grows by adding compress nodes rather than by replacing them.
No manual parameter tuning. The platform evaluates time of day, lighting, motion level and scene complexity, then applies the strategy that scene actually needs.
City roads, security checkpoints and commercial streets. Strategy leans toward stable quality, protecting the detail of people and vehicles.
Corridors, warehouses and fixed entrances. Strategy leans toward a higher compression ratio to release the maximum storage.
Smart campuses, car parks and public service halls. Strategy balances space against quality.
Every action, resource consumption figure and abnormal state is recorded. The whole process is auditable.
| Recorded field | Detail |
|---|---|
| Original size | Recorded per file |
| New size | Recorded per file |
| Matched template | The adaptive strategy applied |
| Processing time | Including verification |
| Operation result | Success with compression percentage, or failure reason |
| Failure handling | Retry count and circuit-breaker state |
Original versus compressed capacity, absolute space released, and saving percentage by region.
CPU utilisation heat map, queue backlog state, and live status for scanner, media, compression and quality nodes.
Repeated replacement failure, node offline, and proactive interception of low-storage conditions.
Every action tied back to the file and node that produced it.
Aggregate processing rate across the compression cluster.
Compression achieved against the original footprint, tracked continuously.
The accredited public security inspection report explicitly records that resolution, frame count, duration and codec format are unchanged after processing — and that the result is suitable for statutory evidence.
Test results are unambiguous: after compression the authenticity and integrity of the video are unchanged. Resolution, frame count, duration and codec format remain fully consistent with the original.
Subscriber and infrastructure video retained at central scale without expanding storage.
City-scale footage made defensible long term while freeing capacity for new coverage.
Regulated retention on hub footage, with retrieval workflows completely unchanged.
Branch and transaction footage held for the full audit period.
Historical retention extended without new racks.
Dispute resolution footage kept for months beyond the previous limit.
We will walk through the verification gates, the rollback mechanism and a sizing model against your current archive volume.
