Edge-ready, privacy-first computer vision
Scaleout Vision helps organizations efficiently, securely, and adaptively capture valuable edge-based image data from vehicles, drones, industrial equipment, and infrastructure. It overcomes common limitations like privacy concerns, network costs, hardware diversity, and limited labeled data.

Organizations across industries are generating massive volumes of image data at the edge - in vehicles, drones, industrial equipment, and distributed facilities. This data holds great potential for building powerful computer vision models, but several critical challenges prevent organizations from fully leveraging this resource:

  • Data Privacy and Security: Centralizing sensitive image data for model training raises significant privacy concerns, regulatory compliance issues, and security risks. Organizations cannot freely move data from edge devices to central training facilities.
  • Network Limitations: Transmitting large volumes of image data from distributed edge devices to centralized servers is often impractical or prohibitively expensive due to bandwidth constraints, intermittent connectivity, and high data transfer costs.
  • Hardware Diversity: Edge devices have diverse computational capabilities, from resource-constrained sensors to powerful edge computing units, making it difficult to implement consistent training approaches across a device fleet.
  • Continuous Adaptation: Computer vision models require constant fine-tuning as environments change and new visual patterns emerge, but current approaches lack efficient mechanisms for continuous learning without complete retraining.
  • Limited Labeled Data: Most organizations have abundant raw image data but very limited labeled data, creating a significant bottleneck in developing accurate, robust computer vision models through traditional supervised methods.

Existing computer vision frameworks and tools were designed primarily for centralized training paradigms and fail to address these distributed edge challenges. Organizations need a solution that enables them to use their distributed image data assets while respecting privacy constraints, minimizing data movement, and optimizing for edge hardware.

Computer Vision at the Edge

Scaleout Vision is a framework designed to address the challenges of modern computer vision deployment at the edge. It enables organizations to capture the potential of distributed image data without compromising on privacy, network efficiency, or adaptation capabilities.

Core Technology Pillars

1. Federated Self-Supervised Learning

Scaleout Vision enables federated self-supervised learning for visual data, allowing organizations to:

  • Pre-train powerful vision backbone models (CNNs and Vision Transformers) directly on edge devices without transferring raw image data
  • Leverage vast amounts of unlabeled data that would otherwise remain unused
  • Develop robust feature representations specific to their operational environments
  • Train across heterogeneous hardware platforms with optimized protocols

2. Continuous Learning Capabilities

Scaleout Vision enables ongoing model improvement through:

  • Self-supervised pre-training of vision backbones
  • Active learning workflows that intelligently select the most valuable images for labeling
  • Human-in-the-loop mechanisms for efficient expert feedback integration
  • Experience replay and other techniques to prevent catastrophic forgetting
  • Personalization capabilities for device-specific model adaptation

3. Network-Efficient Training

Scaleout Vision minimizes bandwidth requirements by:

  • Dramatically reducing data transfer volumes through model-centric rather than data-centric communication
  • Supporting asynchronous training for devices with intermittent connectivity
  • Implementing intelligent model update compression techniques
  • Enabling disconnect-reconnect training workflows for unstable network environments

4. Hardware-Optimized Implementation

The solution manages hardware heterogeneity through:

  • Training strategies tuned for common edge hardware platforms (Jetson AGX/Nano/Orin)
  • Adaptive computation based on available resources
  • Model distillation workflows to deploy efficient models on constrained devices
  • End-to-end optimization from training to inference on the same edge hardware

5. Privacy-Preserving Architecture

The solution addresses privacy and compliance concerns through:

  • Keeping sensitive image data on the original edge devices
  • Exchanging only model parameters rather than raw images
  • Built-in privacy risk assessment tools to evaluate potential data leakage
  • Optional differential privacy mechanisms to provide mathematical guarantees of privacy

Implementation and Integration

Scaleout Vision is designed as a modular, flexible solution that fits into existing infrastructure and workflows:

  • Framework Integration: Seamlessly connects with Scaleout's FEDn federated learning framework while supporting standard ML operations platforms like MLflow for experiment tracking and model management
  • Computer Vision Capabilities: Provides optimized implementations for essential vision tasks including classification, detection, segmentation, and tracking with pre-tuned hyperparameters for edge deployment
  • Developer Experience: Offers comprehensive client-side APIs and SDK for smooth integration into applications, with detailed documentation and example implementations for common scenarios
  • Deployment Flexibility: Supports various deployment models from fully on-premise to hybrid cloud architectures, with containerized components for consistent deployment across environments
  • Accelerated Start: Includes a library of pre-defined architectures and pre-trained vision models optimized for edge devices, allowing teams to start with a strong foundation rather than building from scratch

Key Benefits

1. Enhanced Data Privacy and Ownership

  • Eliminate the need to centralize sensitive visual data, reducing regulatory compliance risks
  • Maintain complete control over proprietary data assets while still extracting their value
  • Operate in highly regulated environments where data sharing is restricted
  • Enable cross-organizational collaboration without exposing confidential information

2. Reduced Infrastructure Costs

  • Decrease cloud storage and processing expenses by utilizing existing edge compute resources
  • Minimize network bandwidth usage and associated costs
  • Lower data transfer latency and associated operational expenses
  • Extend the value of existing edge hardware investments

3. Improved Model Performance

  • Develop models that learn from more diverse, real-world data sources
  • Create vision systems that adapt to local conditions and edge-specific contexts
  • Build more robust models through continuous learning from operational environments
  • Achieve higher accuracy in domain-specific tasks with limited labeled data

4. Accelerated Time-to-Value

  • Deploy vision capabilities faster without extensive data centralization infrastructure
  • Reduce labeling costs and time through self-supervised pre-training
  • Leverage pre-optimized training strategies for common edge hardware
  • Scale vision capabilities across distributed assets more efficiently

5. Future-Proofed Architecture

  • Adapt to evolving privacy regulations with inherently compliant architecture
  • Scale seamlessly as edge device fleets grow
  • Incorporate new vision model architectures through the modular framework
  • Support increasingly powerful edge hardware as it becomes available

By addressing the fundamental challenges of edge-based computer vision, Scaleout Vision enables organizations to build more accurate, privacy-preserving, and adaptable visual AI systems that operate efficiently across distributed environments.

Primary Applications

Defense & Security

Edge-deployed visual intelligence with enhanced privacy and security. Enables surveillance systems, drone fleets, and security installations to improve threat detection while maintaining strict data sovereignty and minimizing signal exposure in contested environments.

Industrial IoT & Automation

Distributed quality control and predictive maintenance without data exposure. Allows manufacturers to implement visual inspection across multiple facilities, detect equipment failures before they occur, and continuously improve detection accuracy without exposing proprietary production data.

Automotive & Mobility

Fleet-wide learning systems for autonomous driving and assistance features. Empowers vehicle fleets to collectively learn from diverse driving conditions and scenarios while keeping sensitive data local, significantly accelerating the development of robust perception systems.

Smart Cities & Infrastructure

Privacy-compliant monitoring and analytics for public spaces. Supports traffic management, crowd analysis, and infrastructure monitoring while adhering to data protection regulations and minimizing bandwidth requirements for distributed camera networks.

Case Study: FEDAIR - NATO DIANA Challenge

Scaleout's technology is already proving its value in mission-critical defense applications. Our participation in NATO's DIANA Challenge Programme with the FEDAIR (Federated Aerial Intelligence for Recon) project demonstrates how Scaleout Vision's core capabilities address crucial challenges in defense operations:

  • Adapting to Rapidly Changing Environments: In conflict zones, where conditions evolve quickly, FEDAIR ensures ML models remain effective by enabling continuous learning at the edge.
  • Operating with Limited Connectivity: By eliminating the need for raw data transmission, FEDAIR maintains operational capabilities even when networks are contested or disrupted.
  • Enhancing Information Security: Sensitive reconnaissance data never leaves local devices, dramatically reducing vulnerability to interception while still contributing to model improvement.
  • Building Resilient Systems: The decentralized approach ensures continued functionality even when individual nodes are compromised, supporting NATO's priorities for multi-domain operational resilience.

Learn more about how FEDAIR is transforming reconnaissance capabilities in contested environments.

https://www.scaleoutsystems.com/post/scaleout-joins-natos-diana-programme-to-advance-federated-intelligence-in-conflict-zones

Resources and Learning Materials

Blog Posts and Technical Insights

Dive deeper into Scaleout Vision's core technologies through our technical blog posts:

Federated Self-Supervised Learning and Autonomous Driving - Explore how self-supervised learning techniques can revolutionize autonomous vehicle development without centralizing sensitive driving data.

https://www.scaleoutsystems.com/post/federated-self-supervised-learning-and-autonomous-driving

Federated Learning for Object Detection Using YOLO - Learn how our federated approach enhances object detection accuracy while maintaining data privacy across distributed systems.

https://www.scaleoutsystems.com/post/federated-learning-for-object-detection-using-yolo

Code Examples and Tutorials

Get hands-on with our technologies through practical examples:

FEDn Ultralytics Tutorial - A walkthrough for implementing federated object detection using YOLO architectures.

https://github.com/scaleoutsystems/fedn-ultralytics-tutorial

Additional computer vision examples in our GitHub repository demonstrate the versatility of our approach across various use cases, from simple image classification to specialized industrial applications like welding defect detection.

Product Roadmap

Scaleout Vision follows a strategic development path designed to deliver incremental value while expanding capabilities:

V1: Self-Supervised Federated Pre-Training (Q3 2025)

Our foundational release delivers federated pre-training of vision backbones optimized for edge hardware, establishing the core infrastructure and APIs for privacy-preserving visual intelligence.

V2: Supervised Fine-Tuning Capabilities (Q4 2025)

Building on our foundation, V2 introduces comprehensive support for training downstream task-specific models and implements human-in-the-loop workflows for continuous improvement.

V3: Multi-Modal Intelligence (Q2 2026)

Expanding beyond visual data, V3 extends our federated learning capabilities to Lidar and Radar, creating a comprehensive multi-modal sensing platform hardened for automotive-grade deployments.

Future Development

Our longer-term vision includes exploring additional sensing modalities, advanced model optimization techniques, and enhanced deployment capabilities to further strengthen Scaleout Vision's position as the leading edge-based computer vision platform.

Company Credibility

Trusted Expertise in Federated Learning

Scaleout Systems brings together world-class expertise in federated learning, edge computing, and computer vision. Founded by researchers with backgrounds in distributed systems and machine learning, our team has published peer-reviewed papers on federated learning techniques and privacy-preserving AI.

Industry Recognition

Our innovative approach to distributed intelligence has earned recognition from leading organizations:

  • Selected for NATO's DIANA Challenge Programme with our FEDAIR project, highlighting our technology's applicability to mission-critical defense applications
  • Contributor to open-source federated learning through our FEDn framework, which is one of the leading federated learning frameworks
  • Member of key industry consortiums focused on advancing edge AI standards and best practices

Commitment to Research

We maintain active research partnerships with leading academic institutions and industry innovation laboratories, ensuring that Scaleout Vision incorporates the latest advancements in federated learning and computer vision while developing novel approaches to edge AI challenges.

Customer Success

Organizations across defense, manufacturing, and transportation sectors rely on Scaleout's technology to solve their most challenging distributed data problems. Our deployment experience spans everything from small-scale pilot projects to large-scale production implementations with thousands of edge nodes.