Visual detection
Detect configured faces, people, plates, regions, screens, documents, objects, or scene areas.
Accessibility, Language & Privacy
Automatically detect configured sensitive visual and audio information and apply approved blur, masking, replacement, or muting policies before media reaches viewers, recordings, archives, or downstream systems.
Privacy controls are often applied only after the original media has already been transmitted or stored. OPTIME can integrate AI directly into WebRTC, broadcast, surveillance, recording, transcoding, and streaming pipelines so organizations can control what leaves the trusted boundary.
WHY THIS MATTERS
Video and audio systems capture more information than every viewer or downstream system needs.
When privacy transformation occurs only during post-processing, the original media may already have left the organization.
Detect configured sensitive visual and audio content and apply privacy policy before live or recorded media reaches viewers, storage, or downstream systems.
SYSTEM PRESSURES
Original media may be transmitted, recorded, or copied before redaction.
A model output should not independently determine who must be hidden or what must be muted.
Masks may disappear during movement, scale changes, occlusion, or camera motion.
Sensitive speech and sensitive visuals may need one coordinated media policy.
Different roles may require original, partially protected, or fully anonymized media.
Sending raw content to another region or cloud may defeat the privacy objective.
COMPLETE SOLUTION
The complete system can connect video decode, audio extraction, face detection, person detection, object detection, license-plate detection, OCR, screen and region detection, tracking, segmentation, speech recognition, sensitive-phrase detection, privacy policy, masking, blur, pixelation, replacement, muting, tone or noise substitution, encoding, streaming, recording, audit-supporting metadata.
CAPABILITY GROUPS
Detect configured faces, people, plates, regions, screens, documents, objects, or scene areas.
Maintain the privacy transformation through motion, occlusion, camera movement, and frame transitions.
Apply blur, pixelation, fill, replacement, cropping, region masking, background treatment, or configurable overlays.
Where authorized, distinguish allowlisted participants, protected identities, known roles, or unknown bystanders without claiming universal recognition.
Mute configured words, phrases, speakers, or time ranges and support tone, noise, or replacement behavior.
Integrate with WebRTC, SIP media, RTP, RTSP, broadcast, surveillance, recording, transcoding, and streaming paths.
Produce different protected outputs for different viewers, recordings, exports, or downstream systems.
Transform media close to capture so the unprotected source does not need to leave the trusted environment.
ARCHITECTURE FLOW
Models identify what may be present. Explicit policy determines what should happen to it, for which viewer or destination, before an approved transformation produces the output.
Camera, microphone, call, stream, recording, or media source
Capture, decode, synchronization, and source identity
Face, person, object, plate, screen, document, and speech detection
Tracking, segmentation, timestamps, confidence, and evidence
Privacy policy, role, destination, and authorization
Blur, mask, replace, crop, mute, or substitute
Encode, package, and produce approved output variants
Call, stream, record, archive, export, or application delivery
Policy logs, model versions, quality, performance, and review
Private GPU, edge, media-server, or batch infrastructure
ARCHITECTURE DECISIONS
Approach A
Pre-distribution
Approach B
post-recording protection
Selection considerations
Protect before distribution when viewers or downstream systems should never receive source media.
Approach A
Reversible
Approach B
irreversible privacy
Selection considerations
Retain original content only when policy and authorized review require it.
Approach A
Edge
Approach B
centralized processing
Selection considerations
Use edge processing when source-media exposure, bandwidth, or latency matters.
Approach A
All-person
Approach B
policy-aware masking
Selection considerations
Define role, consent, identity, scene, and destination rules separately from detection.
Approach A
Model confidence
Approach B
safe fallback
Selection considerations
Determine whether uncertain detections should trigger broader masking, human review, or another policy.
REPRESENTATIVE SCENARIOS
Representative examples: Each scenario separates model detection from the policy that determines which transformation and output are authorized.
ENGAGEMENT APPROACH
Phase 1
Define sources, sensitive content, viewers, outputs, latency, quality, policy, retention, and deployment.
Phase 2
Prove detection, tracking, transformation, media quality, and failure behavior on representative footage.
Phase 3
Integrate models, policy, GPU processing, media servers, applications, outputs, and monitoring.
Phase 4
Test false negatives, false positives, occlusion, quality, performance, policy changes, and review.
POSSIBLE DELIVERABLES
Final deliverables depend on the selected architecture, validation evidence, and engagement scope.
Start with the workflow, evidence, integration, deployment, performance, and operating constraints that determine whether this system can work in production.
START A TECHNICAL CONVERSATION
Share the product, workload, architecture, infrastructure, performance, security, or delivery constraint that must be resolved.
Austin, Texas
Distributed engineering teams across North America, Europe, the Caucasus, and Latin America.
[email protected]