Yandex.Metrika
Analytical Report

Project "Servitor"

Hardware-software complex for accelerating neural network computations based on domestic processors and Residue Number System (RNS)

Status: Active Development
Connection: Integration with APC "Lovchiy"
Goal: NVIDIA Import Substitution

Project Overview

Key goals and development objectives

Development Context

The "Servitor" project is being developed in response to the current need for domestic hardware-software solutions for accelerating neural network computations, capable of replacing imported platforms (primarily NVIDIA) in artificial intelligence systems.

The initiative is implemented within the development of the APC "Lovchiy" and aims to ensure technological sovereignty in the field of computer vision systems for protecting critical facilities.

Direct Integration

The developed complex is planned to be directly integrated into APC "Lovchiy" to replace imported computational modules.

Main Project Goals

Import Substitution of Computing Platforms

Creating a domestic alternative to NVIDIA platforms for neural network computations

Performance Enhancement

Optimizing computations for computer vision tasks using RNS

Ensuring Technological Independence

Creating a full cycle of development and production of computing systems for AI

Adaptation to Specific Tasks

Specializing architecture for UAV detection and tracking tasks

Technological Features

Architecture and key technologies of the project

Hardware-Software Complex Architecture

Domestic Processors

Use of Russian processor solutions as the basic computing platform

Elbrus, Baikal, Skif

Residue Number System (RNS)

Application of RNS modular arithmetic for parallelizing and accelerating neural network computations

Parallel Processing

Neural Network Optimization

Specialized algorithms and architecture for efficient execution of convolution and matrix operations

YOLO, CNN, RNN

Principle of Residue Number System Operation

RNS is based on representing numbers as sets of remainders from division by coprime moduli. This allows performing arithmetic operations in parallel on each remainder, which significantly increases computation speed for operations typical of neural networks.

+

Parallelism

×

No Carry-Over

÷

High Precision

Up to 5x Acceleration

Key Technical Specifications

Parameter Specification Advantage
Architecture Hybrid (CPU + RNS Accelerator) Optimized for neural network computations
Performance Up to 20 TOPS (trillion operations per second) Comparable to NVIDIA Jetson Xavier
Power Efficiency 15-30 W (depending on configuration) Suitable for field deployment
Supported Neural Networks YOLO, ResNet, MobileNet, EfficientNet Compatibility with major architectures
Interfaces PCIe, USB 3.0, Ethernet, CAN Integration with existing infrastructure
Operating Temperature -40°C to +85°C Extreme operating conditions

Comparison with Imported Alternatives

Analysis of competitive advantages and disadvantages

Comparative Analysis: "Servitor" vs NVIDIA Jetson

Criterion "Servitor" NVIDIA Jetson Conclusion
Origin Domestic Development Imported (USA) Advantage: technological independence
Performance 15-20 TOPS 10-32 TOPS (depending on model) Comparable to mid-range models
Power Consumption 15-30 W 10-60 W Advantage: optimized for field deployment
Ecosystem Developing Mature (CUDA, TensorRT) Disadvantage: tool development required
Cost Expected 20-30% lower than analogs High ($400 to $2000+) Advantage: economic efficiency
Support Direct contact with developer Corporate support Advantage: rapid adaptation to tasks
Security Full control over code and architecture Closed architecture Advantage: security for government sector

Key Competitive Advantages of "Servitor"

Technological Sovereignty

Full control over the technology stack without dependence on foreign solutions

Specialization for Protection Tasks

Architecture optimized for computer vision algorithms in security systems

Adaptability to Customer Requirements

Ability to customize for specific tasks and operating conditions

Reduced Total Cost of Ownership

Lower ownership cost due to domestic production and maintenance

Development and Implementation Stages

Project roadmap for 2024-2026

Stage 1: Research

2024

Theoretical research and modeling of RNS accelerator architecture. Development of algorithm prototypes for neural network computations.

Modeling Algorithms Architecture

Stage 2: Hardware Prototype

2025 (Q1)

Creation of the first hardware prototype based on domestic processors. Integration of RNS accelerator and performance testing.

Prototype RNS Accelerator Testing

Stage 3: Software Ecosystem

2025 (Q2-Q3)

Development of drivers, compilers, and libraries for developers. Creation of tools for porting existing neural networks to the "Servitor" platform.

Drivers Libraries Tools

Stage 4: Integration with "Lovchiy"

2025 (Q4)

Replacement of imported computational modules in APC "Lovchiy" with the "Servitor" platform. Field trials and optimization for real operating conditions.

Integration Trials Optimization

Stage 5: Serial Production

2026

Organization of serial production of the "Servitor" platform. Expansion of application areas to other security and computer vision systems.

Production Scaling Implementation

Conclusions and Prospects

Analytical assessment of the project and recommendations

Analytical Assessment

Technological Significance

The "Servitor" project has high strategic significance for ensuring Russia's technological sovereignty in the field of artificial intelligence and computer vision systems.

Risks and Challenges

Main risks are associated with creating a competitive software ecosystem and ensuring compatibility with existing neural network frameworks.

Market Potential

Potential market includes not only security systems but also other areas: industrial control, transportation, medicine, where efficient AI solutions are required.

Recommendations

Priority Development Directions

  • Focus on optimization for specific perimeter protection tasks
  • Development of tools to simplify neural network porting
  • Creation of reference implementations for key algorithms

Implementation Strategy

  • Phased replacement of imported components in existing systems
  • Creation of demonstration zones at customer sites
  • Development of training programs for integrators

Conclusion

The "Servitor" project represents a strategically important development aimed at creating a domestic hardware-software platform for accelerating neural network computations. Successful implementation of the project will not only ensure technological independence of security systems like APC "Lovchiy", but also create a foundation for the development of a whole class of Russian AI solutions in various industries and the defense complex.

Analytical report prepared based on

"Servitor" project technical documentation

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