Portfolio

Course Contents
The 5EC minor project enables minor students obtain the experience of working in teams while developing software.
Students work in project groups on a full project implementation in the domain of data technologies, or game development.
Study Goals
For all projects:
- Apply software development techniques to real world problems
- Evaluate the conditions of working in groups in software related projects

For game development:
- make a realistic game design for a short development period
- design, implement and validate a variety of algorithms, and integrate them within your game concept
- distinguish the various modules of a game engine, and use them for your game concept
- understand and implement some sort of intelligent behavior in a computer game

Molecular diagnostics

Many diseases are caused by genetic variations. Predisposition for a disease can thus be derived from studying one's genome. Hence,…

/ewi/over-de-faculteit/afdelingen/intelligent-systems/pattern-recognition-bioinformatics/the-delft-bioinformatics-lab/research/molecular-diagnostics

Variant prediction and annotation

Genetic difference between and within species drive how we evolve, but also what causes malfunctioning of genes and phenotypic differences.…

/ewi/over-de-faculteit/afdelingen/intelligent-systems/pattern-recognition-bioinformatics/the-delft-bioinformatics-lab/research/variant-prediction-and-annotation

Publications from Pure

/ewi/over-de-faculteit/afdelingen/intelligent-systems/multimedia-computing/research/publications-from-pure

MAiA

Introduction MAIA is an algorithm to integrate multiple genome assemblies. For example, assemblies originating from: Different runs of a de…

/ewi/over-de-faculteit/afdelingen/intelligent-systems/pattern-recognition-bioinformatics/the-delft-bioinformatics-lab/software/maia

Software

Peacock (2017): Phylogenies Visualization library PEDCA (2017): Ploidy Estimation by Dynamic Coverage Analysis GenomeTools (2017):…

/ewi/over-de-faculteit/afdelingen/intelligent-systems/pattern-recognition-bioinformatics/the-delft-bioinformatics-lab/software

Computational Neurobiology

The immense complexity of the mammalian brain is largely reflected in the underlying molecular signatures of its billions of cells. Brain…

/ewi/over-de-faculteit/afdelingen/intelligent-systems/pattern-recognition-bioinformatics/the-delft-bioinformatics-lab/research/computational-neurobiology

Single-cell omics

The most recent breakthrough in genomics is the ability to measure within single cells. Data from hundred thousands, even millions of cells,…

/ewi/over-de-faculteit/afdelingen/intelligent-systems/pattern-recognition-bioinformatics/the-delft-bioinformatics-lab/research/single-cell-omics

Functional genomics

The central dogma, first posed by Francis Crick in 1958, tells that DNA encodes for Genes which are translated into Proteins. Over the last…

/ewi/over-de-faculteit/afdelingen/intelligent-systems/pattern-recognition-bioinformatics/the-delft-bioinformatics-lab/research/functional-genomics

Aging research

Why do some people reach the age of 100 in a healthy condition with no signs of neurodegeneration while others do not. DBL investigates…

/ewi/over-de-faculteit/afdelingen/intelligent-systems/pattern-recognition-bioinformatics/the-delft-bioinformatics-lab/research/aging-research