Scientific resources

The development of digital biosensors represents an intricate combination of materials science, electrochemistry, microfabrication and data engineering.

Attention is increasingly turning to electrochemical platforms that offer the precision of ELISA with the speed and portability modern workflows require.

From rudimentary electrochemical setups to advanced multiplexed nanomaterial-based devices, biosensing has come a long way since its influential origins

Engineers need a clear understanding of the significant measures of biosensor performance and the advantages of next-generation carbon-based nanomaterials

Whilst the definition may sound straightforward, the functionality of today’s most advanced biosensors lies in the nuanced engineering of their core components

Nanomaterial-based biosensors, particularly those built on carbon-based platforms, can change how we navigate drug discovery.

We examine the strengths of carbon nanostructures and their impact on biosensor innovation, as well as their weaknesses and how to overcome them.

We go into detail over why commercial biosensor applications using graphene remain limited

Engineers need a clear understanding of the key hurdles in commercialising carbon nanomaterials for biosensor manufacturing

In order to choose the best nanomaterial for specific types of biosensors, engineers need to understand the features, benefits and challenges of each.

We go into detail surrounding biosensors, unpacking their components, use cases and application examples in different industries.

We explore electrochemical biosensors, their unique features and why they have struggled to achieved widespread use

We take a look at the future of medicine with emerging nano-biosensors that bring unprecedented sensitivity and scalable fabrication.

Explore four novel transducers revolutionising biosensors, leveraging cutting-edge materials like Gii for enhanced sensitivity, specificity, and real-time applications in healthcare and environmental monitoring.