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ENI · RESEARCH

ENI

Embedded Neural Interface Framework

An in-development neural acquisition and processing framework. Channel count and sample rate depend on the acquisition hardware and configuration; performance remains a research target.

Signal Acquisition Modes

ENI research covers four signal types through configurable acquisition pipelines.

Config-specific
Configured Rate
Front-end specific
ADC Configuration
Config-specific
Configured Channels

ENI Processing Pipeline

01

Acquisition

Configure acquisition for the attached front end. Channel count and sample rate depend on the acquisition hardware and configuration; limits require measurement on a named setup.

02

Filtering

Hardware-accelerated bandpass filtering (0.1 Hz – 10 kHz), notch filtering (50/60 Hz), and common-average referencing.

03

Spike Detection

Threshold-crossing and template-matching spike detection are research pipeline goals; throughput and latency benchmarks are pending for each hardware configuration.

04

Feature Extraction

Spike waveform features, LFP power bands (delta/theta/alpha/beta/gamma), and coherence measures extracted per channel.

05

Decoding

EAI-powered neural decoder: population vector decoding, Kalman filter, or deep learning decoder (LSTM/Transformer) for BCI applications.

06

Output

Decoded neural commands delivered via EIPC to EoS applications, ready for the actuator or downstream service to act on.

Use Cases

Brain-Computer Interface

Research target: evaluate motor-intent decoding for assistive control and publish protocol-specific accuracy results.

Closed-Loop Neurostimulation

Research target: study detect-stimulate-measure feedback loops. No clinical efficacy or treatment claim is made.

Neural Prosthetics

Cochlear implant signal processing, retinal prosthetics, and somatosensory feedback for prosthetic hands.

Research Platforms

High-density Utah array and Michigan probe support. Compatible with Open Ephys, Blackrock, and Intan hardware.