Delft, Netherlands
Delft, Netherlands
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Jacobus van ’t Hoff is perhaps one of the most distinguished alumni of Delft University of Technology, remembered as t... View More
Jacobus van ’t Hoff is perhaps one of the most distinguished alumni of Delft University of Technology, remembered as the very first recipient of the Nobel Prize in Chemistry in 1901. He is best known for his pioneering work in chemical kinetics, osmotic pressure, and stereochemistry, which laid the foundation for modern chemistry. His theories explained how chemical reactions occur in space, introducing the concept of three-dimensional molecular structures, which was revolutionary at the time. His studies on equilibrium in chemical reactions not only advanced theoretical chemistry but also provided the basis for countless practical applications in medicine, agriculture, and industry. Van ’t Hoff’s legacy continues to inspire researchers and positions TU Delft as an institution producing scientists of global influence. View Less
Simon van der Meer, another Nobel laureate from TU Delft, won the Nobel Prize in Physics in 1984 for his critical contri... View More
Simon van der Meer, another Nobel laureate from TU Delft, won the Nobel Prize in Physics in 1984 for his critical contributions to particle physics. His work at CERN was pivotal in developing the stochastic cooling technique, which made it possible to accumulate and control particle beams at high intensity. This innovation directly led to the discovery of the W and Z bosons, fundamental particles that confirmed the unification of weak and electromagnetic interactions. Van der Meer’s practical brilliance and engineering skills were crucial in designing accelerator technologies that transformed experimental physics. His Nobel Prize underscores TU Delft’s reputation as a breeding ground for talent that bridges engineering innovation with groundbreaking scientific discoveries View Less
Jan Arnoldus Schouten, a distinguished mathematician and alumnus of TU Delft, is remembered for his seminal contribution... View More
Jan Arnoldus Schouten, a distinguished mathematician and alumnus of TU Delft, is remembered for his seminal contributions to tensor calculus, a mathematical framework essential for Einstein’s theory of general relativity. His work simplified and formalized complex mathematical concepts that became indispensable in both physics and engineering. Beyond theoretical mathematics, Schouten influenced the way applied sciences integrate higher mathematics, providing tools that are still widely used in mechanics, electromagnetism, and geometry. His career demonstrated how TU Delft nurtures not only engineers but also mathematicians who shape fundamental sciences. Schouten’s contributions remain embedded in the backbone of modern theoretical physics and applied mathematics worldwide. View Less
Willem Alberda van Ekenstein, an accomplished chemist from TU Delft, is best known for his groundbreaking work in carboh... View More
Willem Alberda van Ekenstein, an accomplished chemist from TU Delft, is best known for his groundbreaking work in carbohydrate chemistry. He collaborated with other scientists to deepen the understanding of polysaccharides and their structures, which has had lasting implications in biology and food sciences. His research advanced the study of complex sugars and paved the way for later developments in biochemistry and medicine. By investigating the chemical nature of carbohydrates, he provided essential insights into human metabolism and industrial food processes. His contributions highlight TU Delft’s strength in producing alumni whose work straddles fundamental research and practical applications that impact daily life. View Less
Adriaan van Wijngaarden, a pioneer in computer science and a TU Delft graduate, is best known for creating the Van Wijng... View More
Adriaan van Wijngaarden, a pioneer in computer science and a TU Delft graduate, is best known for creating the Van Wijngaarden grammar, a formal system used to define the syntax of programming languages. His work was crucial in the development of ALGOL 68, a programming language that influenced many modern programming languages such as C, Pascal, and Java. Beyond his technical brilliance, Van Wijngaarden was a leader at the Mathematical Centre in Amsterdam, where he guided research in computing and information sciences. His legacy reflects TU Delft’s role in shaping early computer science, ensuring its alumni are at the heart of innovations that define the digital age. View Less
Jaap Haartsen, one of TU Delft’s most celebrated modern alumni, is globally recognized as the inventor of Bluetooth te... View More
Jaap Haartsen, one of TU Delft’s most celebrated modern alumni, is globally recognized as the inventor of Bluetooth technology. During his time at Ericsson, he developed the groundbreaking short-range wireless communication standard that now connects billions of devices worldwide — from smartphones and headphones to medical devices and automobiles. His work revolutionized personal connectivity and paved the way for the wireless revolution. Haartsen’s achievements show how TU Delft alumni are not just theorists but innovators who profoundly shape modern lifestyles. In recognition of his contribution, he was inducted into the National Inventors Hall of Fame in 2015. His story embodies TU Delft’s commitment to impactful, real-world innovation. View Less
Erick van Egeraat, a renowned Dutch architect and TU Delft alumnus, has made his mark internationally with bold and inno... View More
Erick van Egeraat, a renowned Dutch architect and TU Delft alumnus, has made his mark internationally with bold and innovative designs. Known for projects such as the ING Bank headquarters in Budapest and the Medical Faculty at Leipzig University, his architectural style blends functionality with aesthetic daring. Van Egeraat’s works are spread across Europe, Russia, and the Middle East, reflecting a global influence. He is celebrated for designs that integrate cultural context with modern architectural solutions, often challenging traditional forms. His career exemplifies TU Delft’s reputation in producing architects who redefine urban spaces and leave lasting cultural imprints through their visionary work. View Less
Adrian van Hooydonk, a TU Delft graduate, is one of the most influential figures in automotive design today, serving as ... View More
Adrian van Hooydonk, a TU Delft graduate, is one of the most influential figures in automotive design today, serving as the Senior Vice President of BMW Group Design. He has been instrumental in shaping the design philosophy of iconic car brands including BMW, MINI, and Rolls-Royce. Known for his forward-thinking and futuristic approach, Van Hooydonk has led projects that combine cutting-edge technology with striking aesthetics, ensuring the brand’s legacy in innovation and style. His leadership extends beyond aesthetics, as he also promotes sustainability and user-centered design. His success underscores how TU Delft alumni excel in blending creativity with engineering, influencing industries worldwide. View Less
Herman Hertzberger, another celebrated architect from TU Delft, is renowned for his contributions to structuralism in ar... View More
Herman Hertzberger, another celebrated architect from TU Delft, is renowned for his contributions to structuralism in architecture. His works, including the Centraal Beheer office building in Apeldoorn and various schools across the Netherlands, are marked by their human-centered design. Hertzberger emphasized flexible, open spaces that encourage interaction, reflecting his belief that architecture should serve the people who inhabit it. He also contributed significantly to architectural theory through his writings, which continue to influence architects globally. Hertzberger’s career demonstrates TU Delft’s tradition of producing architects who balance practical construction with deep social and philosophical thought, shaping environments where communities thrive. View Less
Abdul Qadeer Khan, a TU Delft alumnus, played a controversial yet impactful role as the key figure behind Pakistan’s n... View More
Abdul Qadeer Khan, a TU Delft alumnus, played a controversial yet impactful role as the key figure behind Pakistan’s nuclear weapons program. After studying metallurgical engineering at TU Delft, he went on to develop expertise in uranium enrichment technology. His knowledge and leadership enabled Pakistan to develop nuclear capabilities, which altered the geopolitical balance in South Asia. While his legacy is debated due to accusations of proliferation, his technical achievements are undeniable and highlight the far-reaching influence of TU Delft graduates in global science and defense. Khan’s story reflects the powerful expertise that TU Delft instills, preparing alumni for leadership roles in complex, high-stakes fields View Less
The below information is required while
completing the university application :
Completed Online Application Form – Applicants must fill in all the required details accurately through the official TU Delft online application portal.
Secondary School Diploma / High School Certificate – Proof of completion of secondary education equivalent to Dutch VWO level or an international equivalent, such as A-levels, IB Diploma, or national boards.
Official Academic Transcripts – Detailed records of all grades and subjects studied in secondary school, translated into English or Dutch if not originally in one of these languages.
Proof of English Proficiency – Accepted test scores include IELTS (minimum 6.5 overall), TOEFL iBT (minimum 90), or Cambridge English (C1 Advanced/C2 Proficiency).
Copy of Valid Passport or National ID – Identification document required for verification of nationality and personal details.
Motivation Letter / Statement of Purpose – A written explanation of why the applicant wishes to study at TU Delft, including career goals and academic interests.
Know moreIn 2015, TU Delft made international headlines when its Delft Hyperloop Team participated in Elon Musk’s SpaceX Hyperloop Pod Competition. The team won the first prize for design and later became one of the finalists in subsequent competitions, showcasing TU Delft’s innovation in futuristic transportation. Their Hyperloop pod was praised for its efficiency, safety, and engineering excellence. This achievement placed TU Delft at the forefront of next-generation transportation research and solidified its reputation as a breeding ground for disruptive engineering solutions. The Hyperloop project continues to inspire new prototypes, making Delft a global leader in sustainable mobility innovation.
TU Delft’s 3D Concrete Printing Lab, established in 2015, marked an important breakthrough in the construction and materials industry. Researchers developed advanced techniques to print large-scale concrete structures, revolutionizing the way buildings and infrastructure could be constructed. The lab pioneered eco-friendly construction practices by reducing waste and enabling custom, complex architectural designs. This achievement highlighted TU Delft’s commitment to sustainability and innovation in civil engineering and architecture. The research findings have since influenced construction practices globally, proving that TU Delft doesn’t just teach engineering—it redefines how engineering can be applied to reshape industries and create a sustainable future.
TU Delft became a global leader in quantum technology with the launch of the QuTech Institute in 2014, a collaboration with TNO (Netherlands Organisation for Applied Scientific Research). The institute focuses on building scalable quantum computers and secure quantum internet. This achievement placed TU Delft at the heart of the global quantum revolution, attracting top researchers and industry collaborations worldwide. QuTech has already made breakthroughs in quantum communication and computing hardware, making the Netherlands a hub for advanced quantum research. TU Delft’s role in this field demonstrates how the university consistently pushes scientific frontiers with transformative global impact.
In 2013, the TU Delft Solar Team won the World Solar Challenge in Australia with their solar-powered car Nuna7. Competing against top universities worldwide, the team’s car demonstrated advanced energy efficiency, aerodynamic design, and renewable technology. The victory highlighted TU Delft’s leadership in sustainable energy innovation and its ability to inspire young engineers to push technological boundaries. Nuna7’s success built on a legacy of TU Delft solar cars winning multiple editions of the challenge since 2001. These victories positioned TU Delft as a global authority in solar mobility, showcasing how innovation and teamwork can accelerate the transition to clean energy.
In 2012, TU Delft introduced Zebro, a small hexapod robot designed for swarm robotics applications. These robots, developed at the university’s robotics lab, could work in groups to perform complex tasks such as search and rescue missions, environmental monitoring, and exploration of hazardous areas. The innovation gained global attention as one of the first successful implementations of swarm robotics inspired by insect behavior. This achievement showed TU Delft’s expertise in artificial intelligence, robotics, and applied research. Zebro positioned the university as a pioneer in robotics, reinforcing its reputation for creating technology that bridges academic theory with real-world applications.
In 2011, TU Delft established the Delft Institute of Positive Design (DIOPD), pioneering research on how design can enhance human well-being and happiness. This was a groundbreaking move in the design and engineering world, as it shifted focus from purely functional or aesthetic aspects of products to their psychological and emotional impacts. TU Delft’s initiative sparked global discussions in design research, influencing how companies and designers approached user experience. The institute’s work continues to expand, proving TU Delft’s influence beyond traditional engineering and into human-centered innovation, shaping how society interacts with technology and design in daily life.
In 2008, TU Delft achieved a remarkable milestone with the successful launch of Delfi-C3, the first Dutch nanosatellite. Designed, built, and operated almost entirely by students and researchers, this satellite demonstrated TU Delft’s capability in space technology and satellite engineering. Delfi-C3 tested solar cells, wireless communication systems, and nanosatellite technology, marking the Netherlands’ entry into the global nanosatellite race. It also inspired generations of students to pursue careers in space research. The achievement showed how TU Delft blends academic training with practical, hands-on projects that directly contribute to international advancements in aerospace engineering and technology.
During the early 2000s, TU Delft researchers and alumni contributed significantly to the design and aerodynamics of the Airbus A380, the world’s largest passenger aircraft. Their expertise in aerospace engineering, particularly in areas like computational fluid dynamics and wing optimization, made TU Delft a valuable partner in this international aviation project. This achievement demonstrated how academic research at TU Delft translates into real-world applications that push the boundaries of aviation technology. It also strengthened the university’s global reputation as one of the leading centers for aerospace engineering, producing graduates who continue to influence major aerospace companies worldwide.
In the aftermath of the devastating North Sea Flood of 1953, TU Delft played a vital role in the design and engineering of the Delta Works, one of the largest flood defense systems in the world. Faculty and alumni collaborated with engineers nationwide to create innovative storm surge barriers, dams, and sluices that protected the Netherlands from future flooding. This project, completed over several decades, demonstrated TU Delft’s strength in civil engineering and hydraulics. The Delta Works not only saved lives but also became an international model of resilience and water management, showcasing TU Delft’s commitment to solving real-world challenges.
The establishment of Delft University of Technology in 1842 by King William II marked the beginning of a pioneering journey in technical education in the Netherlands. Initially founded as the Royal Academy for the training of civil engineers, TU Delft grew into a world-class institution recognized globally for engineering, architecture, and applied sciences. This achievement laid the foundation for a strong academic and research tradition in Europe. Over time, it evolved into a leading technical university that shaped Dutch industrialization, infrastructure, and scientific thought, making its founding year an essential milestone in European higher education history.
In 2019, TU Delft revealed the Flying-V, a revolutionary aircraft design developed in collaboration with KLM. The Flying-V integrates the passenger cabin, cargo hold, and fuel tanks into its wing structure, creating a highly energy-efficient aircraft. Its innovative design reduces fuel consumption by 20% compared to traditional aircraft of similar size. With growing pressure to decarbonize aviation, the Flying-V has gained global attention as a potential future standard for sustainable air travel. TU Delft continues to refine prototypes, testing aerodynamic performance and passenger comfort. The project underscores the university’s leadership in tackling climate change through aerospace innovation.
Inspired by Elon Musk’s vision of near-vacuum tube transport, TU Delft’s student team developed the Delft Hyperloop prototype in 2017 and won the SpaceX Hyperloop Pod Competition. Their pod achieved record-breaking acceleration and safety standards, earning international recognition. The team’s design combined magnetic levitation, lightweight materials, and autonomous control systems, pushing the boundaries of futuristic transport. The Delft Hyperloop has since evolved into the Hardt Hyperloop startup, which continues to develop this concept commercially. This invention is not just a prototype but a stepping stone toward reimagining high-speed, carbon-neutral intercity travel, reinforcing TU Delft’s reputation for cutting-edge innovation.
In 2015, TU Delft students developed the AquaDrone, a water-based autonomous drone designed for monitoring and cleaning water bodies. Equipped with sensors and cameras, the AquaDrone can collect environmental data, detect pollution, and even remove floating debris. Its design addresses the growing problem of water pollution while advancing robotics in aquatic environments. The project gained attention for its environmental benefits and practical applications in urban water management, fisheries, and scientific research. The AquaDrone reflects TU Delft’s strong commitment to sustainability, combining robotics with ecological awareness to tackle one of the most pressing global challenges: clean water.
In 2010, TU Delft, under the leadership of astronaut and professor Wubbo Ockels, developed the Superbus, a futuristic high-speed electric vehicle designed for sustainable public transport. With sleek aerodynamics, lightweight materials, and speeds reaching 250 km/h, the Superbus challenged traditional thinking about mass transportation. It combined the efficiency of trains with the flexibility of buses, offering point-to-point travel without the need for extensive infrastructure. While it never went into mass production, the project demonstrated TU Delft’s pioneering role in sustainable mobility and showcased how imagination paired with engineering excellence can push the boundaries of public transport solutions
Launched in 2008, Delfi-C3 was TU Delft’s first nanosatellite and one of the first CubeSats developed in Europe. Designed and built by students and faculty, it demonstrated new solar cell technologies and tested communication systems. The satellite successfully transmitted data back to Earth and involved a global network of radio amateurs in its mission. Delfi-C3 was followed by Delfi-n3Xt and Delfi-PQ, marking TU Delft as a leader in nanosatellite innovation. These projects gave students hands-on space engineering experience and contributed to the growing field of low-cost satellite technology, making space exploration more accessible.
The DelFly, a bio-inspired micro aerial vehicle, was developed by TU Delft researchers in 2005. It mimics insect flight with flapping wings, offering incredible maneuverability and energy efficiency. The DelFly was designed for applications such as surveillance, environmental monitoring, and indoor navigation where traditional drones struggle. The breakthrough lay in combining robotics, aerodynamics, and control systems to create a light, autonomous flying machine. TU Delft’s work on DelFly also advanced the field of biomimicry, influencing research in both robotics and aeronautics. Today, the DelFly project continues to evolve, exploring autonomy and artificial intelligence for micro-robotics.
In 2001, a student team from TU Delft built Nuna 1, a solar-powered car that won the World Solar Challenge in Australia. This victory marked the beginning of TU Delft’s dominance in sustainable automotive design. The Nuna series has gone on to win multiple world championships, breaking speed and efficiency records along the way. The project not only demonstrated the potential of renewable energy in transportation but also inspired generations of TU Delft students to focus on sustainability and innovation. Nuna has become a global symbol of how student-led engineering can drive real-world change toward clean mobility.
The Maeslantkering, designed with contributions from TU Delft engineers, is one of the world’s largest moving structures and a critical part of the Netherlands’ Delta Works project. Completed in 1997, it was built to protect Rotterdam and surrounding areas from catastrophic flooding. The barrier consists of two massive gates, each the size of the Eiffel Tower laid on its side, which swing shut during extreme storm surges. TU Delft researchers played a central role in the hydraulic engineering, computer simulations, and fail-safe mechanisms. This innovation showcases TU Delft’s leadership in civil engineering and flood defense systems that are studied worldwide
In the 1990s, TU Delft researchers developed SOBEK, a suite of hydrodynamic modeling tools for simulating water flows, flooding, and water quality. The system became widely adopted for designing flood defenses, predicting river behavior, and managing urban drainage. SOBEK has been used in projects worldwide, from the Netherlands’ flood control systems to water management in Asia and Africa. This innovation highlights TU Delft’s global impact in hydraulic engineering and its role in making cities more resilient against climate change. SOBEK’s success lies in combining computational modeling with practical engineering, cementing TU Delft’s authority in water research.
In the 1970s, TU Delft researchers developed a pioneering middle ear prosthesis, later known as the “Delft Ear.” This biomedical engineering innovation was designed to restore hearing in patients with damaged middle ear structures. The prosthesis, made from biocompatible materials, was lightweight, durable, and offered improved acoustic transmission. Its design combined mechanical precision with medical insight, significantly improving the quality of life for hearing-impaired patients. The Delft Ear became a milestone in biomedical device engineering and set the foundation for future collaborations between TU Delft engineers and medical professionals in developing life-changing healthcare technologies
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