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Dulce Vargas Landin
Trung Viet Nguyen
I am using genomic and epigenomic technologies to evaluate the impact of environmental stimuli and L1 (a "jumping" gene within our genome) mobilisation in the brain. These two mechanisms produce differences in the neural genomes during adult neurogenesis (process in which newborn neurons are generated). This diversity created in neurons could be involved in adult learning and memorising processes. However, these alterations in the neurons may also disturb neural functions that predispose or lead to brain injuries and neurological and neuropsychiatric disorders. Therefore, the characterisation of this heterogeneity within the neurons could give us a better understanding of adult brain function and dysfunction.
I have always been amazed by the diversity of biological organisms and how such variety can be encoded in DNA. It is for this reason I chose a biological career in Genomic Sciences. Then, I fell in love with transposons, which unlike genes they can mobilise within the genome. They comprise almost half of the sequences in the human genome and are involved in genome evolution, diseases, gene functions and more. During my Masters I worked with L1 transposons, which represent 17 per cent of the human genome and are the only active transposon elements in humans. For my PhD, I wanted something that involved my passion of genomics and L1 biology and I got one of the most amazing projects in this area: L1 mobilisation in human brains. This project is not only about my favourite things, but it is also about most complex organ we have – the brain.
My Forrest Research Foundation Scholarship gives me, as a student, stability that allows me to focus just on my research
The Forrest Scholarship has really enhanced my scientific career as I can participate in more conferences and events, giving me the opportunity to present my work to the world and to expand my network for future collaborations.
I think science communication is an essential element in research, and with the Forrest Scholarship I am in the best position to practise it. Moreover, the Forrest Research Foundation Scholarship gives me, as a student, stability that allows me to focus just on my research. This part is really important, as I have seen students neglecting their studies because of money issues.
I have always been interested the questions of how life evolved; for example what environmental and biological pressures have driven speciation and extinction. I have likewise thought that plants, which are some of the most diverse group of organisms and usually the most important organisms in their ecosystems, give us the best opportunity to explore such questions.
During my PhD, I will be studying Ptilotus (mulla mulla), which is a large, native group of plants that are well adapted to the arid regions of Australia. The main aims of my thesis are to establish a fully resolved evolutionary tree (phylogeny) of Ptilotus and its relatives using next generation sequencing, for use in subsequent analyses and to resolve the taxonomy of the group.
I will assess phosphorus metabolism in the group, which will elucidate how diversity may be a result of adaptation to low-nutrient soils by comparing the ability of species in relation to evolutionary history. I will conduct the first pollination study in the genus to test how pollinator-driven shifts may have spurred speciation and its incredible floral diversity.
The phylogeny will be used to conduct a biogeographical analysis for Ptilotus and its relatives to reveal the age and continent of origin of the group and to track the spatial and environmental changes over evolutionary time. Tying these topics together will be an ancestral niche reconstruction that will give insights into how environmental factors and climate change may have driven large and rapid diversification events seen in Ptilotus. It will also allow the assessment of the importance of environmental heterogeneity versus pollinator shifts driving adaptive radiations within this group and analogous arid Australian groups.
Western Australia in one of the most botanically interesting areas in the world
This scholarship allows me to do research in one of the best schools for plant biology, learn from great researchers in my field, and conduct research in Western Australia in one of the most botanically interesting areas in the world. These experiences will help to make me a better botanist and researcher.
I always have had a passion for Earth Sciences. To me there was no question about the field of research I wanted to pursue.
Since the world's easily accessible hydrocarbon reserves have now been largely depleted, today the energy industry requires constant innovation in seismic data sensors, acquisition and imaging methods in order to explore, find and produce deeper and more complex reservoirs.
Seismic (OBS) acquisition, due to its broadband frequency characteristics, and the ability to image complex subsurface structures with wide-azimuth, multi-component (4C), has long-offset acquisition and low ambient noise levels compared with conventional marine hydrophone streamer cables. Another important advantage of OBS acquisition methods is the ability to deploy sensors long-term on the seafloor, which allows us not only to record data during seismic surveys (active source) but also in between seismic surveys, such that we can continuously record the passive seismic energy and ambient noise naturally ever-present in the earth. The analysis of passive seismic and ambient noise data (passive seismic imaging) can provide valuable information on the deep crustal structure and tectonic seismicity of an area.
OBS data acquisition is still new and evolving, and the full range of its possibilities has yet to be determined. My PhD project focuses on investigating several aspects of OBS data for improved seismic imaging of the earth. The research is conducted using experimental OBS datasets recently acquired offshore Australia, designed by Prof. David Lumley with his colleagues in the energy industry and Geoscience Australia. The quality, density and geographical coverage of these surveys will give us unique opportunities to quantitatively assess the potential benefits of OBS data for multiple academic and applied research objectives, such as:
Forrest Scholarship helps me travel and attend international conferences to present and share my research with fellow geophysicists
The Forrest Scholarship allows me to complete my PhD in one of the top Geophysics groups in the world. The opportunity to be in this group, surrounded by highly competent people in Geophysics, Computer Science and Geology is helping me grow on a personal level at a very fast rate. Already after only a few months I have learned a lot, and have participated in various seminars and activities.
I am also building an inner circle of professional connections within the UWA Geophysics group, as well as sponsors from the major petroleum and geophysics companies present in Perth.
On an international level, the Forrest Scholarship helps me travel and attend international conferences to present and share my research with fellow geophysicists. This helps me to meet top-notch people in my specialty, develop connections from all around the world, and create opportunities to discuss future projects and career plans.
I have always been inspired by the complexity of the molecular mechanism of how our human genome is regulated, and whether it is possible to learn from nature to design tools that turn genes on or off.
The epigenome is a molecular code superimposed upon the genome that controls how the genetic information is read without altering the underlying DNA sequence, allowing distinct sets of genes to be turned on or off in different cell types to achieve cellular specialisation.
DNA methylation is an essential epigenetic mechanism underlying gene regulation. However, it has not been possible to specifically manipulate DNA methylation at desired locations in the genome in order to control gene expression.
My research aims to develop innovative molecular tools based on recent advanced genome editing technology to manipulate DNA methylation and other epigenetic modifications at specific locations in the genome. These tools will advance our understanding of the epigenome, and may be used for basic research and clinical application to correct aberrant epigenetic patterns in disease states such as cancer.
This is a unique opportunity to train in one of the world’s laboratories at UWA
Research is a very time-consuming process and needs a lot of patience and dedication. The Forrest Scholarship has given me the invaluable mental and generous financial support, so I do not have to worry too much about the tuition fees and living expenses. As a result I can focus 100 per cent of my time on my research.
In addition, the Scholarship has given me a unique opportunity to train in one of the world’s laboratories at UWA in the field of epigenetics with opportunities to collaborate with leading experts.
Proteins are little machineries that carry out numerous functions for the cells in our body. In many diseases, our cells suffer from a state called “oxidative stress” where the protein structures and functions are changed, which worsens the disease symptoms. My research aims to develop a technique that could pinpoint which specific proteins change their structures under oxidative stress. That way, we could better understand what happen inside the disease cells, thereby helping with developing effective treatments.
I will be engaged in various research opportunities
I am an avid learner who loves researching, picking up new skills and gaining new knowledge as well as passing on my skills and knowledge. My passion for research grew stronger and stronger as I progressed through my undergraduate years, during which I was engaged in various research opportunities in parallel with the university coursework. In my Honours year, I felt energised every time I entered the laboratory to perform biochemistry experiments and enjoy the thrill of awaiting meaningful results. As I have realised there is simply so much we have not known and have learned to be comfortable with facing the unknown. I feel humbled and honoured to have been awarded a Forrest Scholarship and am even more determined to build up my career as an expert in my field.
I’m embarking on an exciting and crucial project to discover what native bees inhabit urban areas in South West Western Australia and what factors enhance or limit their diversity and abundance.
I was born in Tasmania, lived in various states throughout Australia, and currently reside in Perth, WA. Throughout Australia, I never cease to wonder at the unique flora and fauna this great southern land boasts. I get a real ‘buzz’ about bees, biodiversity and biology in general. I possess a passion for all creatures great and small and have an insatiable curiosity to discover and research the natural world.
I am dedicated to preserving this rich biodiversity in Australia and across the globe, and seek to use science to better understand and conserve the biota we share this planet with, and communicate such insights gained so as to engage others to share my lifelong passion for the betterment of all living beings and the environments we share.
My research project involves assessing native bee assemblages in urban habitat fragments in South West WA and investigating how the introduced European honeybee (Apis mellifera) interacts with these native pollinators.
Urbanisation is often considered to be at odds with biodiversity, yet Perth is situated in the middle of the South West Western Australia Florist Region, an internationally recognised biodiversity hotspot. Bees are a keystone species and their pollination services underpin healthy ecosystems, including those featuring native, horticultural and crop plants.
My project will identify not only what native pollinator occur in the places most people live, work and play, but also what factors can promote bees in the ’burbs. WA boasts an estimated 800 species of native bees whose diverse pollination services promote diverse plant communities to thrive in both our backyards and bushland reserves. My study also seeks to resolve the controversial question about whether the introduced European honeybee adversely affects native bees. WA is renowned internationally for its high-quality honey produced by honeybees, but there are concerns that this abundant non-native bee outcompetes the indigenous fauna.
The Forrest Scholarship will enable me to realise the full potential of my project, and the generous financial assistance will provide invaluable stability and support. As a Forrest Scholar, I’m excited to embark on this project which will provide crucial information on how to preserve healthy, thriving pollinator communities in our backyards and bushlands in this biodiversity hotspot with applications across the globe.
I’m incredibly honoured to be selected as a Forrest Scholar and apply my intellect and passion to generate world-class science. It is undeniably a ‘bee-rilliant’ opportunity.
I’ve always been split between a passion for history and archaeology on one hand and a profound interest in science on the other hand. As a kid, my interest in archaeology was sparked by my grandfather who took me on historic walks in the old city of Copenhagen, lecturing me about the history of the city from the Vikings through the Middle Ages.
Despite this long passion for archaeology, I decided to follow my interest in science after high school and enrolled in Molecular Biomedicine in Copenhagen. However, during my bachelor’s degree, I found myself drifting away from biomedicine towards the field of ancient genetics where DNA sequencing is applied to analyse fossils from archaeological excavations.
In ancient genetics I have found the niche where I can combine my skills in molecular biology with my passion for archaeology. I am genuinely excited by the wealth of information that can be produced from tiny pieces of seemingly worthless bone fragments and I love that DNA sequencing allows me to look thousands of years back in time into a world that was very different from the world today.
In a time characterised by a global decline in biodiversity driven by human activities, it is essential to understand how biodiversity has changed historically both before and under human influence. Traditionally, the size and shape of animal bone remains from archaeological excavations have been studied to characterise the biodiversity of the past. Such analysis relies heavily on large, well-preserved bones and does not consider small or degraded fossils as they cannot be identified morphologically. This limits the reference material considerably as the vast majority of bones identified in such excavations are heavily fragmented.
My project aims to analyse changes in past biodiversity in WA and across the globe using genetic methods that enable us to identify animal species based on collections of such small bone fragments. The overall objective of my project is to build a detailed map of biodiversity and species composition through space and time by applying genetic methods to bone fragments from more than 200 sites worldwide, with a key emphasis on sites in Western Australia. Taken together, the project will generate new data, providing the means to address some of the very fundamental questions of evolution and biodiversity including quantification of anthropogenic impacts on native biodiversity.
This research will serve to make people aware of the effects they have had, and continue to have, on ecosystems – an important message to convey as communities strive to preserve and restore faunal biodiversity in their local environment.
I’ve been studying membrane filtration in Kyoto University in Japan. Membrane filtration is a process to sieve particles or molecules depending on their size.
I have been fascinated with this subject because of its simple concept and profound complexity. Now, a worldwide water shortage is anticipated due to increasing population, rapid urbanisation and climate change.
I want to help solve the problem by developing an efficient membrane module for desalination. My research focuses on the desalination of seawater and wastewater by reverse osmosis membranes. For efficient production of potable water, surface of membrane needs to be maintained clean to avoid clogging of the water channel. I am going to use the magnetic resonance imaging technique to understand the mechanism of clogging and to develop a new method for monitoring of membrane condition.
During my PhD program, I want to keep in mind how to connect scientific findings to actual applications. I hope to obtain some patents in my research for commercialisation in Western Australia.