OpenAI 2026 hackathon

Voxa AI: Intraoperative Neuromonitoring Workflow Improvement

With GPT-5.6 vision capabilities, Voxa integrates report creation in parallel with its intelligence case tracking, while embedding structured learning guidance during case support.

Solo project by Widayana Hanafi · 0 likes · 0 comments

Archive position — measured, not model output

0 likes on Devpost

2,264 of the 7,856 archived projects have more likes, and 5,592 share exactly 0 — so this project's #7,610 place in the like-ranked listing is a tie-break inside that group, not a ranking.

Projects (log scale)

1
10
100
1k
10k
05,592
11,758
2285
3–4132
5–975
10+14

Likes on Devpost. ▲ marks this project's group.

Show the figures
LikesProjectsShare of archive
05,59271.2%
11,75822.4%
22853.6%
3–41321.7%
5–9751.0%
10+140.2%
Devpost like counts for all 7,856 archived projects, captured when this archive was built.

Executive Summary

What the company appears to be

Voxa AI is a self-reported project that aims to improve intraoperative neuromonitoring (IONM) workflows through AI-assisted waveform analysis and report generation. It integrates GPT-5.6 vision capabilities into a system designed for real-time case tracking, annotation, and structured report creation.

What changed

The author reports shifting from standalone machine learning models and hardcoded chatbots to a human-supervised AI workflow using GPT-5.6 vision and screen capture APIs. The system now supports real-time waveform review, tagging, and automated PDF report generation, with an emphasis on transparency about uncertainty in data extraction.

Single most important open question

Is there evidence of any actual use or adoption by IONM technologists or clinical teams? The description states no revenue, customers, or traction beyond the author’s own experimentation and a hackathon submission.

Back to contents

What The Product Actually Is

The description states that Voxa AI is a system designed to improve intraoperative neuromonitoring workflows. It uses GPT-5.6 vision capabilities to analyze waveform screenshots during cases, extract visible labels and calibration data, and recommend verification steps. The system integrates with tools like the browser-screen-capture-api, React frontend, Express.js backend, and PostgreSQL database.

The author describes it as a human-supervised AI workflow that allows technologists to tag images with preset markers, log clinical events directly onto waveforms, and compile curated screenshots into automated PDF reports. It includes components for case tracking, waveform review, report generation, annotation lab support, and training modules.

Inference The system is built around screen capture and GPT vision models to extract visible data from waveform images, rather than relying on raw signal data or deep computer vision techniques.

Back to contents

Positioning & Claim Evolution

The author states that Voxa AI was inspired by a lack of standardized educational platforms for IONM technologists. It evolved from early experiments with dense theory-based training and hardcoded decision-tree chatbots to a more flexible, human-supervised approach using GPT-5.6 vision.

Claim

The system integrates report creation in parallel with intelligence case tracking, embedding structured learning guidance during case support.

Inference The positioning shifted from a purely technical or educational tool to an integrated workflow platform that supports both real-time case management and future AI model development through expert-labeled datasets.

Back to contents

Target Customer & ICP

The description states that the target users are Intraoperative Neuromonitoring (IONM) technologists, who work in neurosurgery, orthopaedics, anaesthesia, neurophysiology, and physics. These professionals are involved in monitoring neural function during surgery using various modalities such as SSEP and MEP.

Claim

The system is designed to support new IONM technologists by providing structured learning guidance and reducing cognitive load during cases.

Inference The primary customer segment appears to be internal teams within hospitals or medical service providers who perform IONM procedures, though no specific customers or organizations are named.

Back to contents

Business Model & Pricing Evidence

Not evidenced.

The description does not contain any information about pricing models, monetization strategies, or business models beyond the project’s development phase.

Back to contents

Technical & Delivery Signals

The system is built with the following technologies:

  • Frontend: React, Tailwind CSS, Vite
  • Backend: Express.js, Node.js, TypeScript
  • Database: PostgreSQL, Drizzle ORM, Neon
  • AI/ML: GPT-5.6 (via OpenAI API), browser-screen-capture-api
  • Cloud: Google Cloud

The author notes that early experiments with automatic measurement markers and waveform reconstruction failed due to issues like incorrect anchoring and pixel ambiguity. As a result, the current approach emphasizes human supervision and stateful uncertainty reporting rather than full automation.

Inference The technical architecture supports real-time screen capture and AI-assisted annotation but does not appear to include raw signal processing or modality-specific computer vision models yet.

Back to contents

Traction & Maturity Signals

Not evidenced.

There is no mention of revenue, customers, user adoption, or product maturity beyond the hackathon submission. The project is described as a prototype built during Build Week and has not been independently verified for real-world use.

Back to contents

Competitive Context

Not evidenced.

No information is provided about competitors or existing solutions in the IONM workflow space. The description does not reference other tools, platforms, or vendors offering similar services.

Back to contents

Key Risks & Red Flags

  • Unverified claims: All statements are self-reported and unverified.
  • No traction or adoption: No evidence of real-world usage, customers, or revenue.
  • Limited scope: The system is described as a prototype for a hackathon; no indication it has moved beyond experimental phase.
  • Dependency on human supervision: The approach relies heavily on expert review, which may limit scalability.
  • Unclear future roadmap: While the author mentions building modality-specific models, there’s no evidence of progress or validation.

Back to contents

Diligence Questions To Ask The Founders

  1. Has this system been tested with actual IONM technologists in clinical settings?
  2. What is the current level of human involvement required in the workflow?
  3. Are there any plans to validate performance with clinical experts beyond the hackathon?
  4. How does the system handle data privacy and compliance (e.g., HIPAA)?
  5. Is there a plan for monetization or commercial deployment?

Back to contents

Investment/Partnership Verdict

Not evidenced.

There is no evidence of funding, valuation, or investment interest in Voxa AI beyond its submission to a hackathon. No commercial traction, partnerships, or investor engagement are mentioned.

Confidence level Low. The description provides only a self-reported account of a prototype project with no independent verification or evidence of real-world impact.

Back to contents

Source

Submitted to the OpenAI 2026 hackathon on Devpost. Project home on DevPost.

The analysis above was generated by a language model from the project's own one-line description. It is not independent research and contains no verified traction, revenue or customer data.