The ability to continuously process and retain new information like we do naturally as humans is a feat that is highly sought after when training neural networks.

Tunable lenses are conceptionally like a human eye. An elastic polymer membrane covers a reservoir containing an optical liquid.

The iToBoS project is usually categorized within the field of medical imaging. However, all the technical solutions used or to be developed in the project, from the optics to the artificial intelligence algorithms, are part of the wider field of machine vision.

The task of real-world noise removal is challenging, as the noise model is highly complex. CNNs have lately achieved state-of-the-art denoising performance, but the networks are extremely large and complicated for a better accuracy.

Diffusion Models are a type of likelihood-based models that have recently generated synthetic images of excellent quality.

In this article we analyze new scenarios and business cases of teledermatology.

iToBoS project was presented through a poster titled “Non-contact dermoscopy for the early detection of skin cancer” in the interdisciplinary workshop Cluster of Excellence PhoenixD.

This article presents an analysis of the strengths, weaknesses and threats of teledermatology.

Primary teledermatology means a mobile dermatology linking directly patient and dermatologist, while secondary teledermatology is a way to enlarge the access to specialist care.

The main added value of teledermatology is to ensure a wider access to specialist skin care (“Telemedicine is a way of moving patient’s information rather than patients”[1]).