In your position you will take care of the entire financial and project administration of Eindhoven Engine B.V. You will provide the MT with the necessary management information, you will give solicited and unsolicited advice, and you will think along with them to come to joint solutions/improvements. It is therefore broader than just a financial function.

The position of Finance & Project Controller falls under the responsibility of the Project Control department. This department, with a team of about 50 employees, performs the complete administration and financial management of all research projects of the University. These are some 2,000 projects on an annual basis, spread across a wide range of grant schemes.

Eindhoven Engine and the TU/e department Industrial Design is offering a fully funded 2-year position to master graduates leading to the award of an EngD (Engineering Doctorate) degree in Designing Human- System Interaction.

About the assignment

In cooperation with a few project partners, Eindhoven Engine has decided to contribute the development of an integrated multi-dimensional digital twin of the Brainport region. Currently many scattered efforts for digital twinning are running. The aim of this project is to align a reasonable amount of these efforts into a state-of-the-art prototype that allows the Brainport region to address diverse actual problems (such as nitrogen reduction, the energy transition to renewables, the addition of 100.000 persons to the region and their impact on traffic, emergency service, …).

The challenge for the EngD position at Eindhoven University of Technology would be to develop and evaluate a concept prototype of a multidimensional, integrated digital twin for the MRE (Metropolitan Region Eindhoven) area. This digital twin should accurately represent the physical and functional aspects of the region, including infrastructure, transportation, buildings, and other urban systems.

Candidates should have a background in an area related to interaction design (e.g., industrial design, software engineering, and human computer interaction). They need to be creative, and entrepreneurial and to have an innovative mind. Candidates will be embedded in a multidisciplinary team consisting of computer scientists, industrial designers, and business entrepreneurs.

The experience of creating a mobile game that had such success in my home country of Brazil made me think that maybe this could be the right path for me: finding a way to put together my skills and my desire to change people’s lives through design. That was one of the reasons that led me to apply for an EngD position at TU/e to work in the Emergence Lab at Eindhoven Engine on Low Literacy and the Future of Work projects.

Focus within low literacy

Nowadays, almost 2.5 million people are low literate just in the Netherlands and this number is increasing over time. It is known that there are different types of literacy, but we are focusing on reading and writing abilities since these are the main forms of communication and access to knowledge in contemporary society. On top of that, there is a shortage of teachers for all these people, so we should use technology such as Artificial Intelligence, digital games and social media to tackle this problem. However, low literacy, as you might imagine, is a complex problem. Choosing a traditional way of designing is not the right decision.

Using design thinking

Up to this moment, I have been studying in order to better understand this issue, following design thinking steps as an approach. At the same time, I am learning how to develop a way of thinking that is systemic and takes into account the complexity of this wicked problem. I am being supported by an excellent team of teachers and I believe that the EngD program is helping me to have access to the latest research in AI interaction and user experience, guiding me to become a more human and complete designer. Regarding the language (you might be asking yourself), since I don’t speak Dutch (yet), I am following interviews by Dutch students with the target group to get information on how we can develop a solution that really will help them.

Finally, my next steps will be developing a prototype to be tested with the target group until the end of the year and then making the necessary changes to adapt to their needs. Also, I wish to extend this project to my home country and – why not? – more countries.

Our socials

“I envision this configurator as something we will use here at Sorama to configure our products for different settings, for example smart stadiums, busy streets and probably more.” Devansh’s prior educational experiences include a BSc in Computer Science & Engineering from Punjab Engineering College, Chandigarh, India, and a MSc in Sound and Music Computing from Aalborg University Copenhagen, Denmark. He has also worked in various IT roles with firms like JPMorgan Chase, Shell and Bosch.

“I’m glad to be a part of this exciting setup here in Eindhoven,

and I look forward to meeting you soon!”

Devansh Kandpal I EngD trainee VIPNOM project

In 2019, I started my PhD, after which we initiated a clinical study called Neurotrend in collaboration with Philips and the epilepsy centre Kempenhaeghe. Neurotrend is one of the first Eindhoven Engine OpenCall projects.

Predicting the clinical outcome

This study is aimed at predicting the clinical outcome (i.e., the course/development of a disease) of people with depression based on MRI scans. More specifically, we obtain structural, functional (activity) and vascular MRI scans of the brain of subjects with and without depression at the beginning of the study and after a year. During the one-year period, we monitor their depression symptoms and cognitive ability. In this way, we can predict how the depression will develop over time based on the first scans but also evaluate brain changes over a year and correlate this to symptom changes. The clinical study was ethically approved in 2021 and its data acquisition is almost finished at the time of writing.

Preliminary results

From the preliminary results, we can conclude that brain activity patterns and interaction between brain networks is time-varying and that including this neurodynamic nature in a model improves the prediction of depression symptom severity changes over time compared to more standard/static approaches (brain activity/synchronicity over the whole functional MRI scan). Moreover, we demonstrate that a relatively novel MRI acquisition method, called multi-echo multiband imaging, increases the functional MRI signal quality and improves, amongst other things, the temporal resolution. This is beneficial as it allows us to more reliably model network interactions. Another interesting finding was the fact that brain volume and tissue properties of several limbic structures, which are known to be involved in emotion processing, also have predictive value for clinical outcome in depression. A smaller amygdala (associated with fear processing) volume correlated significantly with a higher number of lifetime depressive episodes.

Improving the models and interpreting clinical meaning

In the last period of the PhD, I will focus on improving the models and interpreting the clinical meaning of these results, which will further help in understanding the aberrant brain mechanisms in subjects with depression. We hope to show other researchers the direction in which we think future MRI studies related to psychiatric disorders should head. Taking into account the complex, dynamically interactive brain while implementing the aforementioned MRI acquisitions could lead to more replicative results, especially if carried out in studies with a larger sample size. Even though we will not yet be able to apply these models in the clinic to support (still subjective) clinical decision-making, we are contributing significantly to existing depression-related MRI research. We have demonstrated the potential of state-of-the-art analyses and acquisitions in combination with a multi-modal MRI-based longitudinal study for depression diagnosis/prognosis purposes.

Our socials

Impression photo

Our motivation was the global supply problem of FFP2 masks at the start of the corona pandemic in 2020 and the environmental impact of these masks. With the ProM mouth/nose masks, Europe no longer has to depend on the supply from Asia because the production of these masks takes place in Europe and can be quickly scaled up, while the FFP2 masks are also more environmentally friendly throughout their lifespan. This project was successfully concluded at the end of 2022 and was supported by Small Business Innovation Research (SBIR) of the Netherlands Enterprise Agency and the Ministry of Health, Welfare and Sport.

Sustainable, lighter and high comfort

ProM mouth/nose masks are incredibly sustainable as they are made almost entirely (95%) from renewable, biological resources: PLA with bio-based polypropylene (PP) for filtration and recycled steel for the nose bridge. In addition, the mask is about 30% lighter than regular mouth/nose masks made of polyphenylene ether (PPE), requiring fewer raw materials to produce the mask. Last but not least, the mouth/nose mask is also highly comfortable to wear. From mid-2024, the production of these masks will take place entirely at co-developer and manufacturer SionBiotext BV in Maastricht, thereby ensuring better security of supply.

Certification and market readiness

This consortium worked on a prototype FFP2 mouth/nose mask, successfully testing its (technical) feasibility, business case, wearability and contribution to sustainability. In the final phase of this project, a lifecycle analysis (LCA) was also performed for the mask. The analysis proves that it is possible to develop and produce an FFP2 mouth/nose mask made of PLA and bio-based PP. Among other things, the LCA tests show that these masks have some 72% lower CO₂-related environmental impact throughout their lifecycle compared to a conventional PPE mouth/nose mask. The next step is to certify these masks.