My research focuses on the development of translational analytical technologies at the interface of biotechnology, analytical chemistry, nanotechnology, and biomaterials science. The primary objective of the work is to design accessible, reliable, and field-deployable systems for applications in food safety, environmental monitoring, and precision diagnostics.
The research integrates biorecognition systems, functional nanomaterials, biosensing platforms, and sustainable biomaterial development to address challenges associated with rapid detection, contamination monitoring, and low-cost analytical solutions.
The laboratory focuses on the development of highly selective biosensing systems using aptamers and antibodies for rapid detection of food toxins, contaminants, and biological targets.
Research activities include:
Aptamer generation through SELEX-based approaches
Antibody-assisted analytical platforms
Fluorescence, electrochemical, and colorimetric sensing
Point-of-care and dip-and-read detection systems
Signal amplification strategies for ultrasensitive detection
Applications:
Mycotoxin detection
Food contaminant monitoring
Pathogen detection
Translational biosensing platforms
Research is carried out on the synthesis and functionalisation of nanomaterials for analytical and catalytic applications.
Areas of interest include:
Graphene oxide-based sensing materials
Gold nanoparticle synthesis
Nanocomposite fabrication
Nanozyme development
Surface engineering for biosensor integration
The goal is to improve sensitivity, stability, portability, and analytical performance of biosensing systems.
Food safety remains one of the major research directions of the laboratory.
Current work focuses on:
Detection of mycotoxins and chemical hazards
Mitigation strategies for food contaminants
Analytical evaluation of toxin reduction approaches
Development of rapid screening technologies
Biosensor-assisted monitoring systems
The research aims to support safer food systems through accessible and scalable analytical technologies.
The laboratory explores sustainable utilisation of agro-industrial residues for the production of value-added biomaterials and functional products.
Research areas include:
Conversion of lignocellulosic biomass into functional materials
Oligosaccharide production and purification
Biomaterial-assisted sensing applications
Sustainable processing approaches
Circular bioeconomy concepts
The work combines sustainability with translational material development.
An important focus of the research is the development of affordable and deployable analytical systems that can function beyond sophisticated laboratory settings.
This includes:
Portable biosensing systems
Low-cost analytical assays
Paper-based and rapid diagnostic concepts
Real-world monitoring applications
Industry-oriented translational technologies
The long-term vision is to bridge fundamental research with societal and industrial applications.
Biosensors for food safety and environmental monitoring
Aptamer engineering and biorecognition systems
Functional nanomaterials and nanozymes
Translational analytical technologies
Biomass valorisation and bio-based materials
Rapid detection platforms for contaminants and toxins
Sustainable biotechnology approaches
Computational and predictive analytical modelling
The research involves multidisciplinary experimental approaches including:
Fluorescence biosensors
Electrochemical sensing
Colorimetric assays
Magnetic bead-based platforms
FTIR
Raman spectroscopy
SEM and EDX analysis
UV–Visible spectroscopy
HPLC
UPLC
LC-MS/MS
Fluorescence spectroscopy
Statistical modelling
Response Surface Methodology (RSM)
Molecular docking
DNA structure prediction
Data visualisation using R and OriginLab