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IBEC researchers develop new technology for assisted reproduction that will reduce time to pregnancy   

A new technique developed at the Institute for Bioengineering for Catalonia (IBEC) makes it possible to classify the quality of embryos faster and twice as accurately as expert embryologists. The technology, called “METAPHOR”, uses imaging and artificial intelligence to analyse the metabolism of embryos and oocytes. METAPHOR promises to drastically reduce the time and treatment cycles needed to achieve pregnancy through in vitro fertilisation, minimising the emotional and financial burden on patients.

Spinal cord organoids to study treatments for paraplegia

Zaida Álvarez (IBEC)

Se trata de un proyecto centrado en la creación de un dispositivo impreso en 3D donde se cultivará un organoide de médula espinal humana para estudiar el daño medular y el posterior testeo de fármacos. La investigación, liderada por la investigadora principal del IBEC Zaida Álvarez, ha recibido financiación de la Fundación Internacional para la Investigación de la Paraplejia.

Scientists discover how the physics of colon cancer cells contributes to metastasis

An IBEC-led study has demonstrated the ability of colorectal cancer stem cells to change their mechanical properties, facilitating the successful metastatic process. They did this using tumour organoids derived from patient cells. These findings could contribute to the development of new strategies to treat and prevent metastasis in colorectal cancer.

IBEC celebrates 20th anniversary of nanorobot research

The Nanomotors International Conference was held in Barcelona from 2 to 5 June. The event, organised by the Institute of Bioengineering of Catalonia (IBEC) in collaboration with the ‘la Caixa’ Foundation, the Catalunya La Pedrera Foundation, and the European Research Council (ERC), brought together the most prominent international leaders in the field of nanomotors. For three days, they learned about the latest advances in biomedical applications and the collective behaviour of self-propelled nanomotors, from both experimental and theoretical perspectives.

3D bioprinting for an advanced gut-on-chip model

The innovative device contains a 3D bioprinted channel with structures that mimic intestinal villi and reproduce the compartments of the intestinal mucosa. For the first time, electrodes have been incorporated into the system to monitor the formation of the intestinal barrier in real time. The device is highly versatile and has potential applications in disease modelling and drug screening.