Barbara Ann Halkier is a Professor in the Department of Plant and Environmental Sciences at the University of Copenhagen's Faculty of Life Sciences. She serves as Coordinator of the DynaMo Center and holds a Villum Investigator position since 2021. Her academic journey includes progression from Assistant Professor to full Professor at the University of Copenhagen, with significant leadership roles including Head of the DNRF Center of Excellence for Dynamic Molecular Interactions (2012-2022). Her research focuses on glucosinolates as model specialized metabolites to study cellular and organismal biology. Glucosinolates are amino acid-derived plant compounds in Brassicales (including broccoli, oilseed rape, and Arabidopsis) with dual roles in plant defense and human health applications. Current research emphasizes bioengineering glucosinolates for improved nutrition and crop resistance, investigating glucosinolate metabolons, identifying transporters, and developing USER technology. Her work bridges fundamental plant biology with agricultural applications through pathway and transport engineering. Halkier's research portfolio demonstrates consistent thematic focus with recent publications (2023-2025) centered on glucosinolate transport mechanisms, seed accumulation, and microbial interactions. Key trends include elucidating transporter cascades (UMAMIT-GTR), engineering bacterial systems for enzyme expression, and exploring plant-microbe symbiosis. Her work spans molecular characterization to agricultural applications, with significant contributions to understanding how plants dynamically regulate defensive metabolites. Elected to EMBO (2019) Plant Innovation Prize, Scandinavian Plant Physiology Society (2019) Member of The Royal Danish Academy of Sciences and Letters (2014-2018) University of Copenhagen Innovation Award (2013) Danish Research Result of the Year (2012) Halkier has secured substantial research funding through multiple leadership roles, including coordination of the DNRF Center of Excellence, Danish Strategic Council projects, DANIDA grants with Peruvian partners, Nordic grants, and EU Marie Curie fellowships. Her research group actively engages in knowledge dissemination through public outreach activities including numerous high school visits and media contributions focused on GMOs, sustainable agriculture, and plant science. She leads the Molecular Plant Biology section which investigates cellular transport systems and metabolic networks in plants.
جستوجوی استاد و پژوهشگر
استاد راهنما، استاد دانشگاه یا پژوهشگر مناسب برای مسیر پژوهشیتان را پیدا کنید و با او ارتباط بگیرید.
نمایش ۱-۶ از ۶ استاد راهنما
اطلاعات این پروفایلها از صفحات عمومی دانشگاهها جمعآوری شده و ممکن است بهروز نباشد.
Adele Pioppiمشاهده پروفایل
پژوهشگر ارشد
Adele Pioppi is a Postdoctoral Researcher in the Department of Biotechnology and Biomedicine at DTU Bioengineering, Technical University of Denmark. Her research focuses on plant-microbe interactions with emphasis on sustainable agricultural applications. She maintains an active research profile with recent publications in high-impact journals and contributes to UN Sustainable Development Goals related to sustainable agriculture and life on land. Her research expertise spans multiple interconnected domains: Microbiome engineering for plant growth promotion Host genetic regulation of rhizosphere communities Bacillus species ecology in natural and agricultural systems Synthetic microbial community development Probiotic applications in aquaculture and agriculture Analysis of her publication record reveals a strong trajectory in developing microbiome-based solutions for sustainable food production. Her work bridges fundamental microbial ecology with practical applications in agriculture, demonstrating particular expertise in Bacillus species and their interactions with plant and animal hosts. Recent publications show increasing leadership in establishing methodological standards for synthetic community research. Dr. Pioppi completed her PhD in Plant Microbiome Ecology (2022-2025) under main supervisor Ákos T. Kovács, with examiners Rasmus D. Jonge and Simona Radutoiu. Her doctoral work established foundations for understanding microbial community dynamics in agricultural contexts. Current research continues this trajectory with expanded focus on cross-kingdom microbiome applications.
Frida Meijer Carlsen serves as a Guest Researcher in the Department of Plant and Environmental Sciences at the University of Copenhagen's Faculty of Science, specifically within the Section for Plant Glycobiology. Her research focuses on advanced genome editing techniques for potato improvement, with particular emphasis on CRISPR applications and protoplast-based transformation systems. Her research interests center on plant molecular biology with specialization in genome editing technologies for crop improvement. Dr. Carlsen's work bridges fundamental plant science with practical agricultural applications, focusing on enhancing potato resilience through precise genetic modifications. Her research spans from basic molecular mechanisms of gene editing to applied breeding techniques for developing stress-resistant potato varieties. Analysis of her publication record reveals a strong focus on overcoming technical barriers in potato genome editing, with particular attention to protoplast systems and gRNA efficiency. Her work spans both foundational methodology development and applied crop improvement, with increasing impact as evidenced by citations in high-profile journals including Nature Communications. The research demonstrates progression from basic protoplast editing techniques toward applied breeding solutions for potato improvement. Dr. Carlsen is affiliated with the Section for Plant Glycobiology at the University of Copenhagen, working within research teams focused on plant molecular biology and genetic engineering. Her collaborative network includes researchers across multiple institutions working on potato genomics and genome editing applications.
Søren Dalsgård Petersenمشاهده پروفایل
پژوهشگر ارشد
Søren Dalsgård Petersen is a Research Fellow at the Department of Biotechnology and Biomedicine, Technical University of Denmark (DTU), specializing in synthetic biology and metabolic engineering. His work focuses on integrating computational tools with experimental approaches to advance bioengineering and biotechnology. He holds a PhD from DTU, where he contributed to projects such as 'Characterized Parts Libraries & Pathway Evolver' and 'PAcMEN: Predictive and Accelerated Metabolic Engineering Network.' His research interests span synthetic biology, microbial interactions, protein quality control, and applications of machine learning in agriculture and biotechnology. Notable contributions include developing open-source software like StreptoCAD for genome engineering and teemi for iterative design-build-test-learn cycles. Petersen has collaborated internationally on topics ranging from fungal biocontrol to plant growth optimization using spectral reflectance and weather data analysis. His publications highlight interdisciplinary approaches, including deep learning for fungal interaction classification, rapid plant screening assays, and predictive modeling of metabolic pathways. Petersen actively participates in academic activities, such as presenting at the DTU Open Research Day in 2017 and contributing to EU-funded networks like PAcMEN. His work emphasizes translational research, aiming to bridge computational predictions with real-world biotechnological applications. Key projects include metabolic engineering of eukaryotes, optimization of tryptophan biosynthesis in yeast, and functional mining of transporters. Petersen's lab focuses on systems biology methodologies, combining mechanistic models with machine learning to tackle challenges in sustainable bioproduction and environmental remediation.
Bent L Petersen serves as Associate Professor in the Department of Plant and Environmental Sciences at the University of Copenhagen, specializing in the Section for Plant Glycobiology. His research integrates molecular biology and biochemistry to address fundamental questions in plant science. His primary research interests focus on plant glycobiology , starch biosynthesis mechanisms , and genome editing applications for crop improvement. Current projects investigate potato domestication using wild Solanum species, CRISPR-based optimization for stress resilience, and structural analysis of starch granules for nutritional applications. His work bridges basic science with agricultural innovation through interdisciplinary collaboration. Recent publication trends (2024-2025) demonstrate concentrated expertise in potato genomics and starch engineering, with significant contributions to Nature Communications , The Plant Cell , and carbohydrate-focused journals. Key themes include genome editing protocol development, abiotic stress response mechanisms, and starch structural characterization for food science applications. Scientific collaborations span international networks as evidenced by multi-institutional publications, though no specific awards or fellowships are documented in the provided materials. Dr. Petersen actively supervises research through co-authorship with junior scientists on genome editing projects and stress physiology studies, contributing to the training of next-generation plant biologists. His laboratory maintains strong industry and academic partnerships focused on crop bioengineering solutions. Based at Thorvaldsensvej 40 in Frederiksberg, his research group operates within the Plant Glycobiology Section, leveraging advanced molecular and imaging facilities for plant science innovation.
Johan Andersen-Ranberg serves as an Assistant Professor in the Department of Plant and Environmental Sciences at the University of Copenhagen's Faculty of Science, specializing in the Section for Plant Biochemistry. His research focuses on developing sustainable production systems using algae, particularly Nannochloropsis oceanica, to create high-value molecules from carbon dioxide. His educational journey includes a PhD from the University of Copenhagen with thesis titled 'Biosynthesis of High Value Bioactive Natural Products,' an MSc in Applied Biotechnology from Uppsala University (thesis: 'Utilizing Synthetic Biology in Cyanobacteria'), and a BSc in Medicine and Technology from the Technical University of Denmark. He completed postdoctoral training at the University of California Berkeley in Prof. Krishna Niyogi's laboratory, characterizing genes involved in pigment biosynthesis in stramenophile algae. Andersen-Ranberg's research interests center on algae biosynthesis for sustainability, with a vision to establish Nannochloropsis oceanica as both an Earth-based sustainable production system and potential agricultural crop for space colonization applications. His work spans genetic engineering of eukaryotic algae, carotenoid biosynthesis, cytochrome P450 enzymes, and commercialization of engineered bioproduction hosts. Current projects include developing gene engineering tools for N. oceanica, studying pigment biosynthesis in eukaryotic algae, and creating production platforms for plant natural compounds used in non-lethal rodent pest control products. His publication record demonstrates consistent high-impact research output with recent articles in Nature Communications, Science Advances, Current Biology, and Trends in Plant Science. The research trends show a progression from fundamental biochemical characterization toward applied bioproduction technologies, with increasing focus on engineering approaches for sustainable manufacturing. His work bridges basic science with commercial applications, particularly in the areas of sustainable production systems that utilize solar energy and carbon dioxide. Andersen-Ranberg maintains active collaborations across international research networks, with external collaborations spanning multiple countries as indicated by his research output metrics. His work has been referenced in policy sources, picked up by numerous news outlets, and cited across various social media platforms including X (formerly Twitter) and Facebook. His research has substantial academic impact with hundreds of Mendeley readers across his publications. His laboratory focuses on developing N. oceanica as a production system, leveraging its unique evolutionary position within the SAR supergroup that is responsible for over 40% of Earth's annual carbon dioxide fixation. The research group works on creating sustainable production platforms suitable for both terrestrial applications and potential use in long-duration space missions, such as Mars colonization efforts.