Custom ultrasound platforms

Engineered as one imaging system.

From transducer interface and low-noise acquisition through FPGA receive beamforming, GPU reconstruction, AI-assisted workflows, industrial design, verification, and production transfer.

Conceptual 3D fetal ultrasound visualization — Concept visualization · Not for diagnostic use

Discuss an OEM program Explore the beamformer platform ↗

Concept 3D ultrasound visualization · Not for diagnostic use

01 Parallel-receive channel classes

02 Raw RF access on research configurations

03 Production boards or technology transfer

Handheld beamformer imaging output

Image formation targets for point-of-care workflows.

A representative visualization of thyroid and carotid workflows across B-mode and color Doppler, illustrating the imaging targets for ALEVA's handheld-class parallel-receive beamformer architecture with high-frequency linear arrays.

B-mode
Color Doppler
Linear array

Illustrative composite showing six thyroid and carotid ultrasound views in B-mode and color Doppler — **Representative handheld imaging target** Illustrative image · Not for diagnostic use

From channel data to a controllable image

Post-processing completes the imaging pipeline.

After receive beamforming and image formation, the post-processing layer prepares the frame for viewing. Display-oriented filters can then be tuned to the application and exposed as controlled user adjustments.

01Probe & AFEAcquired RF channels
02BeamformingFocused receive data
03Image formationB-mode / Doppler frame
04Post-processingDisplay-oriented filters
05Display & controlsUser-adjustable view

Interactive comparison

Inspect the post-processing stage.

Drag right to reveal more of the filtered appearance; drag left to restore the original.

Thyroid ultrasound view before illustrative processing

Thyroid ultrasound view with illustrative processing

Filtered Original

50% revealed

Autoplay starts by default. Drag, use the arrow keys, or choose a position to switch to manual control.

Illustrative comparison. Not actual filter output. Not for diagnostic use.

Animated illustrative comparison of original and filtered thyroid and carotid ultrasound views

Animated comparison shown because interactive controls require JavaScript.

Animated illustrative comparison of an original and processed liver ultrasound view

Animated liver comparison shown because interactive controls require JavaScript.

Technical depth, one accountable team

Four engineering layers. One product outcome.

ALEVA can deliver one subsystem or own the connected path from acoustics to manufacturing. The interfaces are defined together so image quality, latency, power, thermal behavior, enclosure, and test strategy stay aligned.

ProbeAFEFPGAGPUProduct

Explore the connected engineering layers

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ALEVA engineers developing FPGA and GPU ultrasound beamformer electronics

Beamformer & electronics Deterministic acquisition. Flexible reconstruction. FPGA: receive beamforming, timing, and low-latency front-end processing.
GPU: reconstruction, plane-wave / synthetic-aperture processing, advanced modes, and AI-assisted imaging.

Concept visualization of an ultrasound system progressing from industrial-design sketches to parametric CAD, internal architecture, and a physical prototype

OEM ultrasound · industrial & mechanical design From first sketch to production-ready system. Concept exploration, ergonomic studies, SolidWorks-based mechanical design, electronics and thermal packaging, SLA / SLS / CNC prototypes, and design-for-manufacture. Concept visualization of ALEVA's end-to-end industrial-design workflow.

Conceptual B-mode liver ultrasound visualization showing tissue and vascular detail

Probe, signal chain & validation Evidence from the transducer interface forward. Array and acoustic-stack integration, low-noise amplification, TGC and high-speed ADCs, raw RF / channel-data access on research configurations, imaging tuning, and verification. Concept B-mode visualization · not for diagnostic use.

ALEVA medical electronics and ultrasound probe manufacturing environment

Manufacturing & technology transfer A development path that reaches production. Production beamformer boards and probe assemblies, test and calibration, build-to-print or full-service manufacturing, documentation, and structured technology transfer.

A controlled development path

Define. Architect. Prototype. Transfer.

Requirements and risks are made measurable before architecture freezes. Working prototypes then connect acoustics, electronics, firmware, imaging, mechanics, verification, and the intended production path.

See the engineering approach ↗

01DefineApplication, probe, image, workflow, production.
02ArchitectInterfaces, partitioning, risks, verification.
03PrototypeHardware, firmware, imaging, enclosure, iteration.
04TransferRelease, documentation, production, support.

Technical program intake

Share the application, probe, form factor, and development stage.

Start a technical conversation