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Ultra-Sensitive Nano-Chip for Early Cancer Detection

Published: Tuesday, May 20, 2014
Last Updated: Tuesday, May 20, 2014
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Device is able to detect very low concentrations of protein cancer markers, enabling diagnoses of the disease in its earliest stages.

An international team of researchers led by ICREA Professor at ICFO Romain Quidant, report on the successful development of a “lab-on-a-chip” platform capable of detecting protein cancer markers in the blood using the very latest advances in plasmonics, nano-fabrication, microfluids and surface chemistry. 

This cancer-tracking nano-device shows great promise as a tool for future cancer treatments, not only because of its reliability, sensitivity and potential low cost, but also because of its easy carry-on portable properties, which is foreseen to facilitate effective diagnosis and suitable treatment procedures in remote places with difficult access to hospitals or medical clinics. 

Although very compact (only a few cm2), the lab-on-a-chip hosts various sensing sites distributed across a network of fluidic micro-channels that enables it to conduct multiple analyses. Gold nano-particles lie on the surface of the chip and are chemically programed with an antibody receptor in such a way that they are capable of specifically attracting the protein markers circulating in blood. When a drop of blood is injected into the chip, it circulates through the micro-channels and if cancer markers are present in the blood, they will stick to the nano-particles located on the micro-channels as they pass by, setting off changes in what is known as the “plasmonic resonance”. The device monitors these changes, the magnitude of which are directly related to the concentration/number of markers in the patient blood thus providing a direct assessment of the risk for the patient to develop a cancer. 

These results are the outcome of the SPEDOC (Surface Plasmon Early Detection of Circulating Heat Shock Proteins and Tumor Cells) FP7 project of the European Commission, coordinated by Prof. Quidant. The project also received generous philanthropic support from Cellex Foundation Barcelona. 


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