Innovation is crucial to fulfil the potential of industrial biotechnology for sustainable production of fuels, chemicals, materials, food and feed. Similarly, scientific and technological advances in environmental biotechnology are needed to enable novel approaches to water purification, and ‘waste-to-product’ processes thus contributing to a circular economy. Increased fundamental knowledge encompassing enzymes, microorganisms and processes are essential for progress in this field. The Department of Biotechnology covers this research area and, based on new insights, selects, designs and tests new biobased catalysts, micro-organisms, and processes.
The department encompasses five research sections:
26 May 2017
Newly discovered ‘Siberian’ soda lake micro-organisms convert organic material directly into methaneResearchers from Delft and Moscow have discovered a new class of micro-organisms in Siberian soda lakes. These organisms grow in sodium carbonate brines with a pH 10 and convert methyl group of organic material into methane gas. On xxday May yyth they, together with colleagues from the US, UK, Germany and Spain, report on their findings in Nature Microbiology.
11 May 2017
Isabel Arends and Wiro Niessen elected as members of KNAWIsabel Arends, Professor of Biocatalysis and Organic Chemistry and Wiro Niessen, Professor of Biomedical Imaging are two of 26 new members appointed by the Royal Netherlands Academy of Arts and Sciences (KNAW).
07 April 2016
Two ERC Advanced Grants for TU Delft researchersTwo TU Delft researchers have been awarded an ERC Advanced Grant. Yuli Nazarov and Jack Pronk will both receive this European grant, which is only awarded to five-year projects conducted by internationally established research leaders. Higher-dimensional topological solids realized with multi-terminal superconducting junctions Prof. Yuli Nazarov of the Kavli Institute of Nanoscience (Applied Sciences) will receive an ERC Advanced Grant of €1.5 million for his research proposal on HITSUPERJU (Higher-dimensional topological solids realized with multi-terminal superconducting junctions). His project focuses on topological materials: materials that exhibit the properties of conductors and insulators simultaneously in certain states. Topological materials were only discovered relatively recently, and they have since become a hot topic in the world of solid-state physics. These exotic materials are fundamentally interesting and also hold promise for concrete applications (such as a quantum computer based on Majorana fermions). However, they are very difficult to prepare and control. Yet some properties of topological materials can be closely simulated using a multi-terminal superconducting junction. Nazarov will put together a team of theorists to investigate this and formulate concrete suggestions for experiments and applications. Eliminating Oxygen Requirements in Yeasts Prof. Jack Pronk of the Department of Biotechnology (Applied Sciences) will receive an ERC Advanced Grant of €2.5 million to conduct research on the oxygen requirements of yeasts and fungi. The project, entitled ELOXY (Eliminating Oxygen Requirements in Yeasts), aims to shed light on the as yet unanswered question of why many yeasts and fungi need molecular oxygen. Even when these micro- organisms can obtain plenty of energy from anaerobic fermentation processes, they still need small amounts of oxygen - and nobody knows why. This conundrum is not only of scientific interest, but is also relevant for large-scale application of yeasts and fungi in anaerobic industrial processes.
16 December 2020
Platform Bio-Economie consolidates broad bioeconomy strategy by appointment of Chair of the BoardPlatform Bio-Economie consolidates its strategic reorientation towards becoming the leading industry organisation targeting the development of a fully renewable and sustainable, CO2-neutral society in which product chains are as circular and biobased as possible. Luuk van der Wielen with over 30 years of mixed academic/industrial experience in developing bioeconomy technology, business and policies has been appointed to chair the board.
15 December 2020
Five 20k grants for cross-campus bioengineering research projectsIn response to the first call for bioengineering research proposals, Delft Bioengineering Institute received a stunning amount of thirteen interfacultary proposals. After a thorough peer review process, eight very good to excellent proposals surfaced. From these, MT BEI has selected the five winning projects listed below. We want to thank all BEI PIs for submitting proposals and all reviewers for their efforts, knowing they were all quite busy already. We hope that 2021 will see the start of a second five-year term for the institute, so we can continue to support these promising cross-campus collaborations! >> Biochars for reducing methane emissions Methane has a high global warming potential, and landfill is one of the largest contributors of global human-caused methane emissions. Methane treatment using engineered microbial oxidation systems is one of the ways to reduce these emissions. Biochars, carbon-rich materials produced from sources such as municipal solid wastes, wastewater sludge and wood, have gained interest in the waste management industry as media to enhance control of landfill gas emissions. In this project, led by Julia Gebert of Geoscience & Engineering (CiTG), BEI PIs of four TU Delft faculties team up to investigate the potential of biochars for enhancing microbial methane oxidation in biofilters. Project title: Effects of biochar on the performance of microbial CH4 oxidation in biofilters to reduce landfill gas emissions. BEI PIs: Julia Gebert (CiTG/GSE), Wiebren de Jong (3mE/P&E), Aljoscha Wahl (TNW/BT), Martin Pabst (TNW/BT), Thomas Abeel (EWI/Bioinformatics) >> Regenerating neuronal circuits using ultrasound People suffering from neurodegenerative disorders such as Alzheimer’s, Parkinson’s Disease and Multiple Sclerosis, have impaired neuronal circuits. Generation of new neuronal circuits by using a patient’s own stem cells may prove helpful in treating the disease. One of the difficulties in inducing neurons from stem cells, is the low efficiency rate we are able to achieve so far. In this project, BEI PIs Tiago Costa of Microelectronics (EWI) and Dimphna Meijer of Bionanoscience (TNW) join forces to explore the use of ultrasound for effectively building active neuronal networks from stem cells. Project title: SoundCircuit: Regeneration of neuronal circuits using ultrasound BEI PIs: Tiago Costa (EWI/ME), Dimphna Meijer (TNW/BN) >> Medical implants to investigate cell mechanobiology In order to study the cell’s behaviour and differentiation, we need to be able to measure the mechanical, electrical and biochemical signals that are dynamically transmitted throughout the cells. This requires the creation of biomaterial models equipped with different sensor types. In this project, BEI PIs Mohammad J. Mirzaali of Biomechanical Engineering (3mE) and Massimo Mastrangeli of Microelectronics (EWI) will team up to design, fabricate and test the proof-of-concept for medical implants equipped with force sensors that can reach a sensitivity level of one micronewton, so the mechanobiology of cells can be effectively investigated. Project title: Sixth Sense Biomaterials BEI PIs: Mohammad J. Mirzaali (3mE/BM), Massimo Mastrangeli (EWI/ME) >> Advanced cellular nanoimaging Structural biology has been essential in understanding the cell. Studying the dynamics of biological systems requires advanced imaging tools, particularly those that can bring both high spatial and temporal resolutions. In this project, BEI PIs Chirlmin Joo of Bionanoscience (TNW) and Carlas Smith of Delft Centre for Systems and Control (3mE) will join forces to develop a novel methodology for fast absolute FRET distance measurement, taking advantage of smFRET (fast but biased molecular dynamics) and localization microscopy (unbiased but static localization). Project title: New structural biology by integrating nanoscopy and single-molecule Forster resonance energy transfer BEI PIs: Chirlmin Joo (TNW/BN), Carlas Smith (3mE/DCSC) >> 3D-printing bacterial electrodes for CO2 conversion In order to achieve a sustainable future, we need to use abundant molecules such as CO2, water and renewable electricity to create our organic chemicals and fuels. Microorganisms have the ability to enable upgrading of CO2 by microbial electrosynthesis. In this project, Ludovic Jourdin of Biotechnology (TNW) and Kunal Masania of the Shaping Matter Lab (LR) will team up to explore strategies to shape carbon electrodes into hierarchical porous electrodes for microbial electrosynthesis and study the role of hierarchical porosity on microbial and electrochemical activity. Project title: BACTRODE: Hierarchical 3D-printing of bacterial electrodes for breakthrough in CO2 conversion BEI PIs: Ludovic Jourdin (TNW/BT), Kunal Masania (LR/SML)
04 December 2020