Are you looking for projects that the Section of Industrial Biotechnology is currently working on? On this page you can find all projects by the Section of Industrial Biotechnology - Department of Biological & Chemical Engineering, Aarhus University.
Below you can find a list of all current and previous projects of research, their status, mission, and funding:
Marie Skłodowska-Curie actions (MSCA) – Innovative Training Networks – European Industrial Doctorates
Danmarks Frie Forskningsfond (DFF), Independent Research Fund Denmark (IRFD)
Novo Nordisk Foundation, Biotechnology-based synthesis & production research – Project Grants 2019
Marie Skłodowska-Curie actions (MSCA) – Innovative Training Networks – European Joint Doctorates
Deutsche Forschungsgemeinschaft (DFG), German Research Foundation
Deutsche Forschungsgemeinschaft (DFG), German Research Foundation
2020-2023. Secret conversations about lignocellulose degradation (AUFF Nova, Denmark) (2.5M DKK)
2018. A cheap and quick detection method to determine both oil leakage and its history in subsea facilities (Danish Hydrocarbon Research Technology Center, Mærsk Oil and Gas, Denmark) (298k DKK)
2018. Hydrocarbons in produced water: a misplaced resource for the bioproduction of the industrial commodity ectoine (Danish Hydrocarbon Research Technology Center, Mærsk Oil and Gas, Denmark) (250k DKK)
2018. Souring mitigation by a low-cost bioelectrochemical device applied at ambient and deep subseafloor conditions (Danish Hydrocarbon Research Technology Center, Mærsk Oil and Gas, Denmark) (310k DKK)
2017. Under Pressure Microbially-Enhanced Oil Recovery (MEOR): Identifying common gene sets in hydrostatic-pressure-adapted oil bioconversion pathways (Danish Hydrocarbon Research Technology Center, Mærsk Oil and Gas, Denmark) (48k DKK)
FAP has high potential for applications from biofuels to organic synthesis, shown by various studies including our own. However, studies to date have used FAP mainly within its natural limits. Here, we want to explore radical-based reactions beyond FAP’s natural reaction, a research area awarded Nobel Prize in 2018 and since then growing tremendously.Beskrivelse
01/03-2024 → 30/06-2025
Zheng Guo , Bekir Engin Eser , Patrick Biller & Tina Kousted
Beyond the state-of-the art technologies, ACTPAC will design and deploy new catalysts and cross-metathesis modes for highly active and selective metathesis of PE into linear alkanes with a narrow distribution range (C6-C18, >90%). Two separate systems: multi- enzyme machinery assembled in the recombinant cells, and metabolic engineered yeast system, dedicated to the transformation of alkanes into monomers will be developed. Monomers of diversified chain-lengths will be used for the synthesis of polyesters presenting different properties and polymer performances, assignable for various applications. A zero-waste solution to the plastic waste management is thus created to keep them out of the environment, and reclaim their values. The new properties and specific applications of the new polyester plastics produced from upcycling of PE waste will bring up the SMEs with new business opportunities by scalable, flexible and robust multi-product manufacturing processes for on-demand and small-volume output production.Beskrivelse
01/01-2024 → 31/12-2027
Greenhouse gas (CO2 and methane, contribute total 92% GHG) is irreversibly changing global ecological cycle. Channeling CO2/methane into central carbon metabolism of industrial microbes to yield valuable drop-in biofuels offers a clean path for GHG sequestration and green economic transition. Starting from converting S. cerevisiae to a methylotrophic lifestyle by incorporating/engineering methanol utilization pathways; this project will design and construct CO2- fixation cycle in heterotrophic S. cerevisiae, and synchronously integrate fatty acid photodecarboxylase (FAP) gene. A new autotroph-like yeast to enable direct conversion of CO2 into alka(e)nes could thus be created. Natural or artificial CO2-fixation cycles will be incorporated into S. cerevisiae to enable a creditable autotrophic growth on CO2, and further engineered by adaptive lab evolution. Genomic integration of FAP gene in the autotrophic yeast will bridge the carbon flux pathways and be rewired for alka(e)ne synthesis.Beskrivelse
01/10-2023 → 30/09-2027
Bekir Engin Eser , Zheng Guo , Niels Krabbe Johnsen & Jaehong Han
Natural products are a rich source of compounds with a plethora of bioactivities including antimicrobial, anti-cancer, anti-diabetic. Flavonoids constitute a family of natural products with a broad variety in structure and activity, often highly substituted by functionalities of hydroxy, methoxy, or glycosylation which dictates their bioactivity. Recently, our collaborator from Korea (Prof. Jeahong Han’s Lab) discovered a gut microbe, namely Blautia producta MRG-PMF1, capable of catalyzing demethylation of PMFs and structurally related non-natural products. The observed
demethylation has been proposed to be catalyzed by the vitamin B12-dependent methyltransferase/ corrinoid protein complex. We aim to characterize the enzymatic system in vitro and utilize the natural activity towards natural product scaffolds to generate catalysts with very high selectivity.Beskrivelse
01/10-2023 → 30/09-2026
Paul Santner , Bekir Engin Eser , Selin Kara , Santiago Nahuel Chanquia & Frank Hollmann
Utilizing an unusual, light-dependent enzyme from a microalga to convert oils and fats from sustainable sources into ready-to-use biofuels.Beskrivelse
15/02-2020 → 14/02-2023
Project lead: Clarissa Schwab
Collaborators: Prof. Hanne Frøkiær KU, Dr. Remo Frei and PD Caroline Roduit, Inselspital Bern, CH
When: January 2024 - December 2026
Granted by: Leo Foundation
Project lead: Clarissa Schwab
When: September 2023 - August 2024
Granted by: AU Cell Food Flagship
Project lead: Clarissa Schwab
When: October 2023 - September 2026
Granted by: Denmark Independent Research Fund (DFF) Project 1, Natural Science Council
Project lead: Clarissa Schwab
When: January 2023 - December 2023
Granted by: AP Møller Fonden
Project lead: Clarissa Schwab, Co-PI Prof. Hanne Frøkiær, KU
When: January 2023-July 2024
Granted by: Danish Dairy Foundation and Brødrene Hartmann Fonden
Project lead: Assist. Prof. Mario Martinez Martinez, Dept. Food Science, AU
https://dff.dk/en/grants/research-leaders-2021/researchleader-21?set_language=en
When: March 2022 - February 2026
Granted by: DFF Sapere Aude
Research period of Dr. Qing Li at ETH Zürich, Microbiome Research
When: November 2021 - January 2022
Granted by: EMBO
Project lead: Clarissa Schwab
When: Sept. 2021 - August 2026
Granted by: Novo Nordisk Foundation
Project lead: Clarissa Schwab
When: December 2020
Granted by: Aarhus University
Project lead: Clarissa Schwab
When: April 2020 - December 2024
Granted by: Aarhus Universitet Forskningsfond (AUFF)
Green Valleys 2.0: Främja övergången till en cirkulär ekonomi (2023- 2026), Interreg
GreenImpro – Improved business potential by increasing protein quality from green feed protein to food protein ingredients and high quality aquafeed (2023-2026), Grand Solution project, Innovation Fund Denmark.
2018 | InnovationFund Denmark "Mining the unexplored microbiome to produce high-value biopharmaceuticals" together with Novo Nordisk A/S (1.1 MM DKK) |
2018 | Villum Experiment "Image recognition in the hunt for new natural products" (1.9 MM DKK) |
2018 | ST Synergy grant together with Prof. Andreas Schramm from Department of Microbiology (0.5 MM DKK) |
2017 | Carlsberg Foundation "Semi-preparative HPLC system for isolating pharmaceutically relevant natural products" (0.5 MM DKK) |
APPLAUSE. In the large-scale industrial project, APPLAUSE (Apple • Aarhus University • Sustainable Energy), we work together with Apple Inc. to develop new knowledge and technology for the production of renewable energy from biomasses including. The activities include: (1) biological pretreatment of recalcitrant biomasses; (2) new technologies for converting surplus electricity to bio-methane; (3) purification technologies for treating biogas before injection to the gas grid; (4) new models for modelling production and consumption of green electricity.
ElectroGas. In ElectroGas we develop new technology for biomethanation together Danish industrial partners as well as Danish and foreign universities. Link to project page.
ATS from biogas. Together with Haldor Topsøe and Unisense, developer of industrial catalysts and sensors, respectively, we construct and demonstrate new catalytic technology for converting hydrogen sulfide in biogas to the valuable fertilizer, ammonium thiosulfate.
FutureGas
Philips, J. (PI)
01/01/2025 → 31/12/2028
Projekter: Projekt › Forskning
Philips, J. (PI), Spormann, A. M. (PI) & Logan, B. (PI)
01/04/2023 → 31/08/2025
Projekter: Projekt › Forskning
Philips, J. (PI)
01/01/2023 → 31/12/2027
Projekter: Projekt › Forskning
Philips, J. (PI) & Catalano, J. (Samarbejdspartner)
01/01/2022 → 30/06/2025
Projekter: Projekt › Forskning
Philips, J. (PI) & Koren, K. (Samarbejdspartner)
01/01/2020 → 31/12/2024
Projekter: Projekt › Forskning
Irla, M. K. (PI), Bruheim, P. (Samarbejdspartner) & Sarıyar Akbulut, B. (PI)
01/04/2024 → 31/03/2027
Projekter: Projekt › Forskning
Irla, M. K. (PI) & Purup, S. (Samarbejdspartner)
01/07/2023 → 30/06/2024
Projekter: Projekt › Forskning
Brautaset, T. (Projektkoordinator), Wendisch, V. F. (Samarbejdspartner), Kosec , G. (Samarbejdspartner), Sariyar Akbulut , B. (Samarbejdspartner) & Irla, M. K. (Samarbejdspartner)
01/04/2021 → 31/03/2024
Projekter: Projekt › Forskning