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JOINT
INTERDISCIPLINARY
PROJECT
Real business cases,
real experience

Valuable insights for you business case

Contact with ambitious, talented students

Access to staff and resources of the TU Delft

Don't miss out

COMING UP

31

Aug

Kickoff JIP - Day 1

For enrolled JIP students only

8:45 - 18:30

Announced on BS

1

Sept

Kickoff JIP - Day 2

For enrolled JIP students only

8:45 - 18:30

Announced on BS

2

Sept

Kickoff JIP - Day 3

For enrolled JIP students only

8:45 - 18:30

Announced on BS
BKG Texture

ABOUT JIP

Real business cases, real experience

The JIP project is an interdisciplinary Master course at TU Delft, which is embedded in the curriculum. In it, students work full-time in groups of five on a challenge identified by industry for a total of 10 weeks. The course aims to develop student skills in working across disciplines and from a challenge-driven perspective. For the students, JIP projects bring forward unique characteristics such as: a starting point in large open-ended problems, a value-driven approach to problem formulation and decision-making, training of self-awareness and self-leadership in combination with teamwork in projects that require addressing engineering problem-solving, societal concerns and an entrepreneurial mindset and working method. For companies the JIP project provides an opportunity to introduce an actual challenge that you encounter in your company, that will be tackled by passionate master students.

Why should your company participate?

  • To experience an engineering focused mix of disciplines and nationalities

  • To work in a team with master students with complementary problem solving skills

  • To connect with the interdisciplinary academic staff of TU Delft

  • To add value to innovative integrated design and business development by ‘out of the box’ thinking

  • To bridge the current gap between the academic world and professional real-life environment

Feb - apr

Companies can apply for participation in JIP

Mar - apr

Companies are selected and announced

May

Company pitch event, online pitches by the company coaches for the students

may

Students apply for JIP

June

First meeting between team and company coach

September

Start JIP (kick off)

november

Final review & public presentation

A general impression of the process

TIMELINE

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Practical Information

What we expect from the company

The JIP projects are focused on innovative interdisciplinary integrated design or research assignments, and orientated towards value creation for society. Solutions have to be environmentally, socially and economically sustainable. The challenges require that innovative engineering and technology in an interdisciplinary mindset are in balance with non-engineering aspects such as societal relevance and impact, and ‘out-of-the-box’ business development. The solutions must be actionable.

 

Each student team will be mentored by a company coach. We expect the company coach:

  • To regularly meet (weekly at the least) with the students (face-to-face or by video-conference)

  • To be physically present during the Kick-off and the team reviews

  • To be physically present at the final review and assessment together with the academic staff

Aerospace & space engineering

Stratospheric Balloon Flights: An experience to the edge of space
Securing the superconducting supply chain for hydrogen aircraft
Satellite and instrument design for XL plate (Falcon 9)
From Prototype to Production and Service: Designing Our Electric Aircraft Assembly and Maintenance Facilities
MoonPort: A European Vision for the 8th Continent
Future Aircraft Cabin Experience as a Revenue Platform
The Missing Link:A LEO logistics and transportation Hub for Lunar and Mars missions
Alternative materials for rocket engine turbines, Exploring new paths to space
RF-Based Drone Detection in Urban Environments

Energy transition

A case for solar streetlights on KNUST campus
Absorbing N2 & CO2 emission with a Quantum Autarkic Office
Building a sustainable customer energy optimization model
Design of a Landmark Facility for an Allseas HTGR Reactor
Redesign defense vehicle with a sustainable power train
AI Optimised, Energy Efficient AGS Intersections
EU 2nd life Batteries: Actor Analysis and Ecosystem Mapping
Decarbonizing the maritime sector: learning by doing

Urbanism, Delta & mobility

Re-Value the Campus: Engineering the zero-waste ecosystem of 2030
Calcinated dredged clay for sustainable concrete
(Delft) Blue Village: field lab for living with water: Sustainable, safe and healthy living in deltas
Automated rainfall detection for smallholder farms in Africa
Critical raw materials  in water treatment processes
BIOHUBS FOR JUST TRANSITION AND DEVELOPMENT IN SOUTH AFRICA
Living Dunes in Scheveningen: Developing a living lab on dune development in Scheveningen
BlueCrib: bridges oyster culture to reef restoration onsite.
Creating a Circular Roadmap for local Urban Mine: Inserting and extracting critical raw materials

Health Technology

Designing a Data-Driven Helpdesk and Predictive Service System for Global Health Operations
Restoring vision in blind people by a brain implant
An emergency life-saving technique, now safer, thanks to you
Critical Materials from Discarded Medical Batteries

Robotics and Hightech

Navigation technology for small sailing drones
Robots on Rails: A Modular Robot for Railway Inspection
Swarm Head; A bio-inspired sensor head for perception, primitive interaction, and autonomous decision-making in ROS-based robots
Robotic Decanting for Albert Heijn E-commerce: Automating the next generation of E-com Distribution centers
The future role of robotics in different markets
Scaling Up Foundation Concepts for Deep-Water Offshore Wind
Dashboard Predictive Maintenance: for intensively operated cranes
Seabed Infratsructure Monitoring and Protection
(Un)wrapping the Future of Air Cargo
Radiation Detection and Decontamination Robot

Smart & Quantum Technologies

CryoKiQQer: Cryogenic-compatible generation and detection of entangled photon-pairs
Agentic AI in Manufacturing, Autonomous Maintenance & Quality Agents – Towards Self-Healing Factory Operations
Police interventions against environmental crimes
Simplifying legislation with AI
Financial Fraud Detection via Quantum Reservoir Computing
Conceptual component cost-sustainability assessment suite
Emotion-Aware Local LLM for Immersive Training
Keeping the Grid Trustworthy in the Quantum Era: From digital trust to future proof energy infrastructure
Expanding Investigative Techniques
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Of course we operate at the top of our game and have everything under control… Until a group of JIP students start asking questions and suddenly you are not so sure anymore. Then you start collaborating and get to the point where both the company and the students grew a lot taller.

Roeland Nagel

Co-founder CHARGED

During JIP we learned where we should put our focus on in our R&D activities. We also obtained new engineering insights from the coaches of other projects.

Eric Romeijn

Head Research & Development
Huisman Equipment BV

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Do you wish to become part of JIP or simply have a question? 

Birgit de Bruin

Programme director
Joint Interdisciplinary Project (JIP) 

partners

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