Next-Gen Volumetric Imaging

Real-Time 3D Electrical Impedance Tomography

Capture high-fidelity volumetric conductivity maps from any geometry. Built for researchers and industrial engineers demanding zero-latency reconstruction.

What is 3D EIT?

3D Electrical Impedance Tomography (EIT) is a non-invasive imaging technique that reconstructs the internal conductivity distribution of a volume based on surface electrical measurements.

Volumetric vs. Planar

Unlike 2D EIT which only shows a cross-section, 3D EIT captures the entire depth of the sample, revealing complex flow patterns and structural variations.

Radiation-Free Imaging

Operates using low-frequency current injection, making it safe for continuous monitoring in medical and industrial environments without specialized shielding.

How Our System Works

A high-performance pipeline from raw potential to 3D insight.

Excitation

Adaptive current injection (up to 45KHz).

Sensing

Simultaneous 32-channel voltage capture.

FPGA DSP

Hardware-accelerated signal filtering.

Inverse Solve

Real-time non-linear reconstruction.

Visual Output

Zero-latency 3D volumetric mapping.

Key Capabilities

The EITX Core is the most advanced 3D acquisition engine for research and industry.

45KHz Capture

Deep-transient monitoring with synchronization across 128 channels.

Medical Safety

ISO 13485 compliant current limits and galvanic isolation.

API Ecosystem

Native Python/C++ SDKs for seamless custom software integration.

Modular Arrays

Easy-swap electrode interfaces for different tank/body geometries.

Raw Data Export

Standard CSV, JSON, and MATLAB binary output formats supported.

EIDORS Ready

Fully optimized drive patterns for the world's leading reconstruction library.

Dual-Recon

Simultaneous processing of 2D slices and 3D volumetric data.

Cloud Sync

Stream real-time meta-data to your private dashboard for remote labs.

Applications

Where precision meets volumetric complexity.

Biomedical

Long-term monitoring of lung ventilation and tissue impedance changes without ionizing radiation.

Lung monitoringTissue healthNon-invasive

Process Control

Monitor industrial mixing vessels, multiphase flows, and pipeline sedimentation in real-time.

Zero-downtimeVolume fractionFlow profiling

NDT Inspection

Identify subsurface cracks, corrosion, and material voids in conductive structures and composites.

Structural healthFault detectionComposite testing

R&D Prototyping

A baseline system for developing new drive patterns and reconstruction algorithms at scale.

Modular designCustom drive patternsOpen SDK

Live Data Dash

Our EIT-PRO suite provides instant visual feedback for conductivity variations. No post-processing wait times—reconstruct while you acquire.

0+
Frames/Sec
0
Channels
<5ms
Latency
EIT Dashboard Mockup

System Architecture

The EITX Core is optimized for 16-bit precision and modular scalability.

Technical Specifications

Channel Count16 / 32 / 64 / 128 (Modular)
Sampling RateUp to 45,000 frames per second
Frequency Range10Hz - 2.5MHz (Adjustable)
Current Range1μA - 10mA (Safety Limited)
Input Precision24-bit Delta-Sigma ADCs
ConnectivityUSB-C / 10Gb Fiber / Wi-Fi 6E

Signal Flow Diagram

Physiological Array / Tank
High-Impedance Front-end
Real-time FPGA Core
3D Volumetric Dashboard

Software & Integration

The EITX SDK is built by developers, for developers.

Zero-Friction SDK

Directly wrap our hardware into your research stack. We provide native bindings for Python, MATLAB, and C++, with a fully documented WebSocket API for real-time web-based visualization.

PythonMATLABC++LabVIEWROS 2
recon_3d.py
import eitx_core as eit

# Init 32-ch hardware
system = eit.initialize(channels=32)

# Start real-time drive
system.start_pattern("adjacent")

# Collect and reconstruct
while True:
    frame = system.read_frame()
    volume = eit.reconstruct_3d(frame)
    volume.plot_live()

Validation & Case Studies

Proven reliability across controlled phantoms and high-frequency process cycles.

Phantom Tank Performance

Standard saline bath tests with nylon inclusions (1cm diameter). The EITX system achieved 98.4% spatial repeatability across 1000 continuous frames.

98.4% Accuracy
±0.2Ω Repeatability

Accelerated Medical Cycle

Dynamic lung-ventilation proxy using dual-piston volumetric phantoms. Captured transient recruitment patterns at 45KHz without signal jitter.

45KHz Frame Rate
0.01% Jitter
MIT RECON LABNASA SPECTROMETRYCERN DATA COREMAX PLANCK INST.

REDEFINE YOUR INVISIBILITY LIMIT.

Talk to an application engineer today and discover how 3D EIT can solve your most complex imaging challenges.