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Development of A Smart-Data Processing Pipeline for Quantification of Respirable Crystalline Silica

Sheffield Hallam University Engineering and Built Environment
✓ Funded (Competition) ⏰ Closing Soon machine learning analytical chemistry materials science environmental engineering artificial intelligence environmental chemistry environmental sciences

Develop cutting-edge AI-enhanced spectral analysis methods for occupational health monitoring. Create innovative machine learning models that enable precise detection of hazardous crystalline silica nanoparticles.

AI-generated overview

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Why This Research Matters

This research addresses critical gaps in airborne silica detection, which is vital to preventing severe occupational diseases. Enhanced monitoring technologies developed through this project have the potential to directly improve worker safety standards and influence industry regulations worldwide.

Respirable Crystalline Silica Raman Spectroscopy Machine Learning Occupational Health Data Modelling Environmental Safety

Project Description

This PhD project addresses a major occupational health challenge by developing an advanced smart-data processing pipeline for the detection and quantification of respirable crystalline silica (RCS). RCS is generated during industrial activities such as cutting, grinding, and polishing materials like stone, bricks, and tiles. Exposure to fine silica dust is linked to serious diseases including silicosis, lung cancer, and autoimmune disorders. Current monitoring methods such as XRD and FTIR have limitations, especially in detecting nano-sized particles. The project will develop a Raman spectroscopy-based approach and combine it with machine learning to improve sensitivity, automate spectral pattern recognition, and strengthen quantitative analysis. The research will involve: refining spectral analysis workflows applying machine learning for detection and classification using Monte Carlo simulations to generate datasets validating the method with laboratory experiments using real and simulated samples collaborating with the UK Health and Safety Executive and Stockholm University The project is part of a Graduate Teaching Assistantship, so the successful candidate will also contribute up to 180 hours of teaching or research support activity each academic year.

Entry Requirements

At least a 1st or 2:1 Honours degree in:
Physics
Materials Science
Computer Science
or a related discipline

Desirable:

background in chemometrics
data modelling
machine learning

For international applicants:

IELTS 7 overall
minimum 6.5 in all components
or equivalent taken within the last two years

How to Apply

Apply through the Sheffield Hallam University online application form.

Upload:

Personal statement, up to 2 pages
Two letters of reference, or details of two referees
Copy of highest degree certificate
For non-UK applicants, IELTS or equivalent and passport copy

If applying for multiple GTA projects, list them clearly and submit a tailored personal statement for each.

Application deadline: 07 May 2026
Interviews: TBC

Eligibility

UK/Home
EU
International

Supervisor Profile

DR
Dr Ronak Janani
Sheffield Hallam University, Engineering and Built Environment

Dr Ronak Janani’s research focuses on integrating advanced analytical techniques with computational methods to improve health-related environmental monitoring. His work involves Raman spectroscopy, data modelling, and machine learning to tackle industrial pollutant detection challenges. He collaborates internationally and emphasizes practical solutions with regulatory impact.

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Development of A Smart-Data Processing Pipeline for Quantification of Respirable Crystalline Silica
Sheffield Hallam University Dr Ronak Janani Deadline: 07 May 2026

Develop innovative machine learning models combined with Raman spectroscopy to transform the detection of hazardous crystalline silica particles. Lead advancements in occupational health through smart-data processing an…

This research directly addresses a major occupational health risk by enabling early and accurate detection of dangerous silica dust. It sup…

Respirable Crystalline Silica Raman Spectroscopy Machine Learning Data Processing