Inferensys

Service

Spiking Neural Network Development

Custom design and training of spiking neural networks (SNNs) using frameworks like Nengo and Lava to leverage the temporal dynamics and sparse computation of neuromorphic processors, solving problems in real-time signal processing and sensory data fusion.
Data scientist building training data pipeline on laptop, data preprocessing visible, technical workspace.

Design and train custom spiking neural networks (SNNs) to unlock ultra-low-power, real-time AI at the edge.

Traditional deep learning is power-hungry and struggles with temporal data. Spiking Neural Networks (SNNs) mimic biological neurons, using sparse, event-driven computation to achieve >10x energy efficiency on neuromorphic hardware like Intel Loihi or BrainChip Akida. We build SNNs that process continuous sensor streams with millisecond latency on microwatts of power.

Deploy always-on intelligence for battery-powered devices, from industrial sensors to autonomous drones.

Our development process delivers:

  • Custom SNN Architecture: Design using frameworks like Nengo and Lava for your specific temporal signal processing task.
  • Specialized Training: Leverage surrogate gradient methods and direct training for high accuracy on event-based data.
  • Hardware-Aware Optimization: Co-design with target neuromorphic silicon to maximize throughput and minimize power draw.
  • Production-Ready Deployment: Integrate optimized SNN models into your edge firmware stack for reliable, deterministic inference.
DELIVERING REAL-WORLD IMPACT

Business Outcomes of Spiking Neural Network Development

Our custom SNN development translates the theoretical efficiency of neuromorphic computing into measurable business advantages, from slashing operational costs to enabling new product categories.

01

Radical Energy Efficiency

Deploy AI inference at the edge with power consumption measured in milliwatts, not watts. Our SNN designs leverage the sparse, event-driven computation of neuromorphic processors like Intel Loihi to enable battery-powered devices that operate for years, not days.

100-1000x
Lower Power vs. DNNs
µW-mW Range
Typical Inference Power
02

Deterministic Real-Time Response

Achieve sub-millisecond, predictable latency for time-critical applications. Unlike traditional deep neural networks with variable batch processing, our spiking neural networks process sensory events as they occur, essential for robotics, industrial control, and high-frequency signal analysis.

< 10ms
End-to-End Latency
Event-Driven
Processing Paradigm
04

Reduced Cloud Dependency & Costs

Move complex pattern recognition and sensory fusion directly to the endpoint. By performing intelligent processing locally with SNNs, you eliminate constant bandwidth costs, reduce latency, and enhance data privacy—critical for applications in remote industrial sites or consumer devices.

> 90%
Reduced Data Transfer
Always-On
Offline Operation
06

Expert-Led Development & Integration

Accelerate from concept to deployed system with our team's deep experience in neuromorphic software-hardware co-design. We handle the full stack—from SNN model design and training to deployment and performance tuning on target hardware—ensuring a production-ready outcome.

Nengo, Lava
Core Frameworks
End-to-End
Project Ownership
From concept to production-ready deployment

Typical SNN Development Project Timeline

A phased breakdown of a standard spiking neural network development engagement with Inference Systems, outlining key deliverables and timeframes for each stage.

Project PhaseKey ActivitiesTypical DurationPrimary Deliverables

Phase 1: Discovery & Architecture

Requirements analysis, neuromorphic hardware selection (Loihi, Akida), SNN topology design

1-2 weeks

Technical specification document, architecture diagram, project roadmap

Phase 2: Model Development & Simulation

SNN design in Nengo/Lava, training with surrogate gradients, simulation-based validation

3-5 weeks

Trained SNN model, simulation performance report, energy efficiency projections

Phase 3: Hardware Deployment & Optimization

Porting to target neuromorphic chip, latency/power optimization, quantization

2-3 weeks

Optimized model binary, deployment scripts, baseline performance benchmarks

Phase 4: Integration & Testing

API/service wrapper development, integration with client systems, real-world validation

2-4 weeks

Integrated prototype, test suite results, operational documentation

Phase 5: Production Readiness

Performance tuning, security review, deployment automation, monitoring setup

1-2 weeks

Production-ready deployment package, SLA documentation, monitoring dashboard

Total Project Timeline

9-16 weeks

Fully functional, optimized SNN system deployed on neuromorphic hardware

PROVEN NEUROMORPHIC SOLUTIONS

SNN Applications and Industry Use Cases

Our Spiking Neural Network development delivers tangible business outcomes by leveraging the temporal dynamics and sparse computation of neuromorphic hardware. We build systems that process real-world signals with millisecond latency and microwatt power consumption, enabling new product categories and operational efficiencies.

Technical and Commercial Insights

Spiking Neural Network Development FAQs

Get specific answers to the most common questions about our process, timelines, and outcomes for custom spiking neural network development.

From initial design to production-ready deployment, a typical project takes 6-10 weeks. This includes 2 weeks for architectural design and dataset preparation, 3-5 weeks for model development and training using frameworks like Nengo or Lava, and 1-3 weeks for optimization and integration onto target neuromorphic hardware (e.g., Intel Loihi, BrainChip Akida). Complex multi-sensor fusion projects may extend to 14 weeks.

Prasad Kumkar

About the author

Prasad Kumkar

CEO & MD, Inference Systems

Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.

His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.