
London
Wakehurst
RBG Kew was founded in 1759 and operates across two sites: Kew Gardens in London, a UNESCO World Heritage Site, and at Wakehurst in Sussex, which is the home of RBG Kew’s Millennium Seed Bank. We also have a permanent research station in Madagascar. We use the power of our science and the rich diversity of our gardens and collections to provide knowledge, inspiration and understanding of why plants and fungi matter to everyone.
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The Trait Diversity and Function Department investigates the properties of plants and fungi and their potential applications for human health, well-being, and sustainable development. Our research examines how traits have evolved and how they function, revealing how species adapt to particular environments and how resilient they may be to future change. This knowledge supports the conservation of plants and fungi and helps identify species that can be used sustainably and equitably for the benefit of humankind.
The department comprises six teams: Biological Chemistry, Character Evolution, Seed and Stress Biology, Comparative Fungal Biology, Plant Health and Adaptation, and Crops and Global Change. This internship is hosted by the Seed and Stress Biology team, based at the Millennium Seed Bank at Wakehurst in West Sussex. The team focuses on key seed functional traits—such as germination, longevity, and stress responses—in wild plant species to inform the development of effective seed conservation and use strategies.
The NTU 2026 internship will take place in the Seed and Stress Biology team, part of the Trait Diversity and Function Department and based at the Millennium Seed Bank (MSB) at Wakehurst, West Sussex. The team’s research focuses on key seed functional traits—such as germination, longevity, and stress tolerance—in wild plant species, with the aim of informing effective seed conservation and use strategies.
This internship forms part of a three-year project funded by the Garfield Weston Foundation: “Unlocking tree seed functional trait diversity and stress resilience to enhance ex situ conservation for restoration and use.” The student will work with existing tree seed collections held at the MSB to identify species with exceptional tolerance to high temperatures during germination and early seedling development—traits with potential relevance for reforestation and ecological restoration (Alfaro et al., 2014).
The project will involve experiments using previously identified candidate species that have shown tolerance to 42.5 °C heat during imbibition and germination. Interns will monitor germination under high-temperature treatments (42.5 °C and/or 45 °C) alongside control conditions. The results will be combined with existing datasets and analysed to address two core research questions:
Do species tolerant to 42.5 °C during imbibition/germination also tolerate 45 °C? How common is this trait among the candidate species?
Is heat tolerance at 42.5 °C and/or 45 °C consistent across multiple seed collections of the same species from different geographic regions?
From June 15 to August 31, 2026 (adjustable at thediscretion of the organisation)
Plants and fungi hold essential clues to many of the natural world’s most pressing challenges, yet much remains unknown about the traits that enable them to survive and thrive across diverse environments. A species’ suite of traits reveals how it has adapted to particular conditions and how resilient it may be to future change. Deepening our understanding of these characteristics—how they function and how they have evolved—will strengthen our ability to conserve plants and fungi both within and beyond their native habitats. It will also help us identify species and bioactive compounds that can be used sustainably and equitably for the benefit of society.
Rice was domesticated in East Asia around 9,000 years ago and has since dispersed, diversified, and adapted to an exceptionally wide range of environments. Among its many varieties, the historically noted Champa rice—introduced from Southeast Asia (present-day Vietnam) to China roughly 1,000 years ago—is credited in Chinese records with revitalising a declining agricultural system. Although references to Champa rice on the mainland later became absorbed into the broader category of indica rice, Taiwan retains written accounts documenting its introduction over the past 400 years.
This internship aims to investigate these historical records and examine historical rice collections to uncover remaining evidence related to Champa rice. The intern will work closely with a PhD student whose research has catalogued unique rice diversity in Vietnam, helping to analyse the relationships between putative Champa rice in Taiwan and historical rice varieties from Cantonese and Vietnamese sources.
Plants and fungi hold essential clues to many of the natural world’s most pressing challenges, yet much remains unknown about the traits that enable them to survive and thrive across diverse environments. A species’ suite of traits reveals how it has adapted to particular conditions and how resilient it may be to future change. Deepening our understanding of these characteristics—how they function and how they have evolved—will strengthen our ability to conserve plants and fungi both within and beyond their native habitats. It will also help us identify species and bioactive compounds that can be used sustainably and equitably for the benefit of society.
Plants in the genus Vigna include a wide range of important legume crops—such as mung bean, adzuki bean, cowpea, and rice bean—valued for their flavour, nutritional qualities, and global significance. Although key genomic resources have been developed for these species and their domestication histories are increasingly well understood, the full extent of genetic diversity across cultivated Vigna and their wild relatives remains under-explored.
RBG Kew holds one of the world’s most extensive collections of plant diversity across its gardens and herbarium, including more than 7,000 Vigna specimens. In this project, the intern will examine this collection, identify materials that address gaps in existing seed bank holdings, and generate genomic sequences to deepen our understanding of Vigna genetic diversity.
The Trait Diversity and Function Department is one of the largest departments at Kew, bringing together a vibrant research community focused on plant and fungal adaptation, resilience, biotic interactions, and bioactive molecules. The department investigates how organisms survive in a rapidly changing world and develops innovative technologies and methods to explore the properties of plants and fungi, their evolutionary drivers, and their potential applications.
Research draws on Kew’s unparalleled collections as well as newly gathered material. This work supports major applied outcomes, including improving the success of ecological restoration and species reintroduction programmes, and expanding the range of species that can enhance nutrition and deliver nature-based solutions. A key focus is the investigation of traits relevant to agriculture—both for improving major crops and for advancing minor, underused species that may be more resilient to environmental change.
The department also examines the molecular basis of useful traits by integrating genomics and chemistry to identify new biomolecules with potential benefits for human health, livelihoods, and well-being. In addition, innovative plant health research is uncovering the genetic foundations of resistance to significant pests and pathogens in species of economic and ecological importance.
Our living environment is shaped by millions of organisms interacting with one another and with the non-living world. Among these, fungi play vital—though often hidden—roles. Beneath the soil, many fungi form cord-like networks, sometimes described as “fungal highways,” which function like underground roads. These structures can transport water and nutrients between plants, connect different soil patches, and even act as rapid movement pathways for bacteria. Yet, despite their importance, fungal highways remain surprisingly understudied. Do most fungi build them, or only a few species? Are they widespread across the planet, or restricted to certain habitats?
To help answer these questions, the successful NTU student will join ongoing research to uncover the diversity of fungal cord systems. This will involve using forensic-style techniques to collect fragments of fungal cords from soil and identify them through DNA sequencing. We will also sample mushrooms from the same locations and compare their DNA with the underground networks to understand which fungi build and utilise these structures. Finally, the student will conduct histological analyses using light microscopy—and, optionally, electron microscopy—to examine internal structural differences among fungal cords.
By revealing the diversity and distribution of fungal highways, this project aims to shed light on an overlooked but essential component of ecosystem function.
The department oversees all Science Education, including MSc, PhD and interns. It also supports the research teams across Kew in delivering impactful research through student-led projects.
Collections-based taxonomy has been the backbone of RBG Kew’s scientific research throughout its history, with both collections and taxonomic expertise playing a central role in describing and conserving biodiversity. Building on the increased data availability resulting from Kew’s digitisation programme, now stored in our Integrated Collections Management System, this project will involve extracting, compiling, and cleaning a dataset of all Kew’s holdings from Taiwan (Formosa). If available, this dataset will be combined with the equivalent data from the NTU herbarium.
The student will interrogate this dataset of Taiwanese specimens to address questions of species composition, documenting patterns such as the most frequently collected families, genera, and species, and identifying patterns of collection across time and geography. The results will form the basis of a report to be submitted for publication in Kew Bulletin. This resource will provide an important baseline for future studies on the evolution of Taiwan’s flora and will contribute to environmental and conservation management within the Republic.
Kew’s vast collections have been the backbone of its research throughout its history. Building on the increased data availability resulting from Kew’s digitisation programme, now stored in our Integrated Collections Management System, this project will involve extracting, compiling, and cleaning a dataset of all Kew’s holdings from Taiwan (Formosa) from our Archive, Illustrations Collection and Economic Botany Collection.
As well as interrogating data from our Integrated Collections Management System, the student will also need to investigate the physical collections held at Kew. Exploring the archives, illustrations and economic botany collections and developing an understanding of the artefacts held at Kew. Developing an inventory and summaries of each item will be a large part of the project, but the student will also work with another intern, investigating Kew’s herbarium collection, to build a wider picture of the Formosan collections held at Kew. This will involve understanding the social history around these collections, the people that made them, and those that supported their work, including local and indigenous peoples. The results will go to inform further research about the Formosan collections held at Kew, including a possible exhibition in Kaohsiung in 2027.
London
Wakehurst