Build technical foundations
Progressively develop skills in mathematics, biology, physics, programming, electronics and data analysis.
Biomedical Engineering
A long-term collection documenting my learning journey in Biomedical Engineering. This archive brings together selected coursework, technical notes, engineering concepts and reflections connecting technology with neuroscience and brain health.
01
This project functions as a living archive of my training in Biomedical Engineering.
It is not intended to be a complete collection of university notes. Instead, it brings together selected concepts, problems, visualisations, experiments and reflections that are especially relevant to understanding the relationship between engineering, neuroscience and clinical practice.
The aim is to document not only what I learn, but also how my way of thinking evolves as I incorporate mathematical, biological, computational and technical tools.
02
My professional background has developed primarily in clinical neuropsychology, cognitive assessment and dementia.
Clinical practice gradually led me towards questions that require tools beyond psychology: how biological processes can be measured more effectively, how physiological signals can be interpreted, how different sources of information can be integrated and how genuinely useful technology can be developed for brain health.
Biomedical Engineering does not represent a departure from that path, but rather an expansion of the tools available to approach the same questions from new perspectives.
03
Progressively develop skills in mathematics, biology, physics, programming, electronics and data analysis.
Relate engineering concepts to neuroscience, neuropsychology and problems connected with brain health.
Create a visible record of concepts, problems, revisions, projects and changes in understanding throughout my training.
Progress from learning content towards formulating questions, designing experiments and analysing data.
04
Linear algebra, systems of equations, vectors, matrices, transformations and mathematical tools used in biomedical modelling and data analysis.
Cellular organisation, membranes, signalling, metabolism, genetics and cellular mechanisms related to health and disease.
Acquisition, processing and interpretation of signals such as ECG, EEG, EMG and other biological measurements.
Programming, data analysis, visualisation and development of reproducible workflows applied to biomedical problems.
Sensors, instrumentation, medical devices and systems designed for assessment, monitoring and rehabilitation.
Engineering applications to the study of the nervous system, neuroimaging and technologies focused on brain health.
05
My first semester focuses on two fundamental areas: Algebra and Cell Biology.
Mathematics
Building the mathematical foundations needed to work with vectors, matrices, linear systems and transformations.
Within this archive, I will select concepts that are particularly relevant to future biomedical applications and transform them into explanations, visualisations and small computational experiments.
Biology
Study of cellular structure and function, signalling, metabolism and the fundamental mechanisms of life.
I will pay particular attention to connections between cell biology, the nervous system, ageing, neurodegeneration and brain health.
06
The archive is not intended to reproduce the complete content of each course. I will select materials that demonstrate understanding, reasoning and application.
Original explanations of particularly relevant ideas, prioritising understanding over memorisation.
Diagrams, mathematical representations and figures created to better understand biological systems and technical concepts.
Connections between academic content and problems in biomedicine, neuroscience and brain health.
Computational exercises, analyses and simulations developed progressively as my technical training advances.
Which concepts were difficult, what changed my understanding of a problem and which new questions emerged during the process.
07
This archive will grow progressively as I advance through the degree.
Rather than trying to document everything, I will select material that contributes an especially relevant idea, tool or connection.
Over time, the aim is for this project to show an evolution from academic foundations towards more complex work involving signal analysis, neuroimaging, sensors, programming and artificial intelligence applied to health.