Transformer-Bio PhD Studentship: Using Transformers to Predict Quality Risks in Quorn-Style Fermentation (Fully Funded)

If you’re interested in AI for biotechnology, multi-omics, and real-world industrial impact, this fully funded PhD studentship at Teesside University (Centre for Digital Innovation) offers a genuinely exciting research problem: using transformer-based deep learning to integrate imaging + omics + modelling to anticipate harmful fermentation changes before they become costly.

Author: Dr Niaz Chowdhury (LinkedIn)
Designation: Lecturer (Computer Science)
Affiliation: Ulster University, Birmingham, UK

Scholarship snapshot


Why this project matters

Industrial food fermentation isn’t just about taste — it’s also about consistency, cost, waste, and emissions.

In continuous flow systems of Fusarium venenatum (used by Quorn, one of the leading meat-substitute companies), the fermentation can produce mutant strains known as C-variants. These variants develop altered hyphal branching patterns, which are:

  • Very difficult to detect early
  • Capable of changing product texture (often making it crumbly)
  • A common reason fermentations get terminated early, causing high costs and avoidable emissions

One major challenge remains: it’s not yet clear why these branching patterns emerge, which makes proactive prevention difficult.


What the PhD will do

This project aims to build a deep learning method that can integrate multiple data sources to predict the onset of problematic branching patterns.

You will work on:

  • Multi-omic characterisation of the fermentation process (to help explain why changes occur)
  • Integration of metabolic modelling, imaging, and omics data
  • A transformer-based architecture designed for time-resolved, multi-modal data (a strong fit for complex biological systems)

Recent research has shown transformers can perform strongly in tasks such as multi-omics and imaging data imputation and integration, which makes this approach a promising direction for fermentation prediction and monitoring.


What makes it especially strong

Industry-linked, real-world problem

This isn’t a theoretical “toy” dataset. The project addresses a concrete industrial challenge in large-scale food fermentation, with clear value for quality assurance and sustainability.

Interdisciplinary team and newly collected data

You’ll be part of a multidisciplinary group spanning:

  • Computer science and deep learning
  • Omics and molecular biology
  • Fermentation and modelling

The data will be newly collected by the wider project team (including lab technician support), giving you the chance to shape the analysis pipeline from the ground up.

Wider collaboration network

Alongside Prof Angione’s team, you’ll work with:

  • Prof Peter O’Toole (University of York)
  • Prof Safwan Akram (National Horizons Centre)
  • Prof Annalisa Occhipinti (Teesside University)
  • Dr Nanda Puspita (Quorn)

Funding and eligibility

What the funding covers

This is a fully funded PhD studentship, covering:

  • Tuition fees for up to four years (full-time registration)
  • Annual tax-free stipend: £20,780 for four years (subject to satisfactory progress)
  • Requirement: you must complete within four years

Who can apply

Applications are welcome from UK and international students.

Academic requirements:

  • A 2:1 or above (or expected) in computer science, biological, chemical, physical sciences, or mathematics
  • A Master’s in a relevant discipline is desirable but not essential
  • A demonstrable understanding of the research area is expected

International applicants:

  • A limited number of bursaries may be available to support full studentships for outstanding international candidates (highly competitive)
  • Usual requirements apply: English language criteria, ATAS clearance, and visa processes where relevant

The wider doctoral training programme emphasises inclusive recruitment and welcomes applicants from underrepresented backgrounds, valuing curiosity, creativity, and commitment alongside conventional achievement.


How to apply

To apply, you’ll need to submit an Expression of Interest via the designated form for the project(s) you choose.

  • You can apply for up to two projects within the scheme (even across different universities)

Academic enquiries:
For questions about the research, contact C.Angione@tees.ac.uk.


Key dates (for your diary)

  • Application deadline: 07/01/2026 (5:00 PM)
  • Interviews: expected February 2026 (date to be confirmed)
  • Start: October 2026

What a strong application might highlight

If you’re serious about standing out, consider showing evidence of:

  • Comfort with Python and modern deep learning workflows (e.g., PyTorch / TensorFlow)
  • Understanding of transformers and sequence/time-resolved modelling
  • Interest (and ideally experience) in omics, imaging, bioinformatics, or computational biology
  • Ability to work across disciplines and communicate with non-computer-scientists
  • Motivation connected to industrial impact, sustainability, and food systems

Even if your background is more biology-heavy or more CS-heavy, this project can suit you if you can demonstrate the willingness and ability to bridge the gap.


Final thought

Transformer-Bio sits right at the intersection of AI innovation and biotech industry impact. If you want a PhD where your work could help prevent real production failures and reduce waste, while developing cutting-edge multi-modal transformer methods, this is one to take seriously.

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