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World faces ‘deathly silence’ of nature as wildlife disappears, warn experts

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Tuesday, April 16, 2024

Sounds of the natural world are rapidly falling silent and will become “acoustic fossils” without urgent action to halt environmental destruction, international experts have warned.As technology develops, sound has become an increasingly important way of measuring the health and biodiversity of ecosystems: our forests, soils and oceans all produce their own acoustic signatures. Scientists who use ecoacoustics to measure habitats and species say that quiet is falling across thousands of habitats, as the planet witnesses extraordinary losses in the density and variety of species. Disappearing or losing volume along with them are many familiar sounds: the morning calls of birds, rustle of mammals through undergrowth and summer hum of insects.Today, tuning into some ecosystems reveals a “deathly silence”, said Prof Steve Simpson from the University of Bristol. “It is that race against time – we’ve only just discovered that they make such sounds, and yet we hear the sound disappearing.”“The changes are profound. And they are happening everywhere,” said US soundscape recordist Bernie Krause, who has taken more than 5,000 hours of recordings from seven continents over the past 55 years. He estimates that 70% of his archive is from habitats that no longer exist.Prof Bryan Pijanowski from Purdue University in the US has been listening to natural sounds for 40 years and taken recordings from virtually all of the world’s main types of ecosystems.He said: “The sounds of the past that have been recorded and saved represent the sounds of species that might no longer be here – so that’s all we’ve got. The recordings that many of us have [are] of places that no longer exist, and we don’t even know what those species are. In that sense they are already acoustic fossils.”Burned trees at Lassen Volcanic national park, California, August 2023. More intense wildfires are destroying ecosystems. Photograph: Andri Tambunan/The GuardianNumerous studies are now documenting how natural soundscapes are changing, being disrupted and falling silent. A 2021 study in the journal Nature of 200,000 sites across North America and Europe found “pervasive loss of acoustic diversity and intensity of soundscapes across both continents over the past 25 years, driven by changes in species richness and abundance”. The authors added: “One of the fundamental pathways through which humans engage with nature is in chronic decline with potentially widespread implications for human health and wellbeing.”The shift in ecosystem sound is happening in the air, the forests, the soil, and even under the water. During the cold war, the US navy used underwater surveillance systems to track Soviet submarines – and found they struggled to do so near coral reefs due to all the sounds reefs produced. It wasn’t until 1990 that civilian scientists could listen to this classified data.“Whenever we went to a healthy reef it blew our minds – the cacophony of sounds we heard,” said Simpson, who has been monitoring coral reefs using hydrophones for more than 20 years. “A healthy reef was a carnival of sound.”At the outset of his research, noise pollution from motorboats was his main concern, but 2015 and 2016 brought significant bleaching events, which resulted in 80% mortality of corals. “They cooked the reef,” he said. More than half of the world’s coral reef cover has now been lost since 1950. If global heating reaches 2C, more than 99% of coral reefs are expected to start dying.The result of these bleaching events is a “deathly silence”, said Simpson. “We swam around those reefs crying into our masks.”Mass coral bleaching on the Great Barrier Reef. Photograph: Brett Monroe Garner/Getty Images“These sounds and silences speak back to us like in a mirror,” said Hildegard Westerkamp, a Canadian sound ecologist who has been recording soundscapes for half a century, during which time wildlife populations have experienced average declines of almost 70%.She started working on the World Soundscape Project in 1973 with the intention of documenting disappearing ecosystems. “We proposed to start to listen to the soundscape, to everything, no matter how uncomfortable it may be – how uncomfortable the message.”She said: “The act of listening itself can be both comforting and highly unsettling. But most importantly it tends to connect us to the reality of what we are facing.”Sound data is now being used alongside visual data as a way to monitor conservation efforts and ecosystem health. More sophisticated and cheaper recording equipment – as well as increasing concerns about environmental destruction – are driving the boom in ecoacoustic monitoring.As the sophistication of microphones has increased, scientists are using them to monitor life that would not usually be audible to human ears. Marcus Maeder, an acoustic ecologist and sound artist from Switzerland, has been investigating the noises trees make under stress, pushing a microphone into the bark of a tree to listen to the living tissue. Stress sounds like pulses come from within the cavity, he said.When he first pushed a microphone into the soil of a mountain meadow he discovered it was also alive with noise, “a completely new kingdom of sounds”.Intensively managed agricultural land, often doused with pesticides, sounds very different, Maeder said: “The soil becomes quiet.”Researchers listening to soundscapes in the soil to learn more about its biodiversity. Photograph: Graeme Robertson/The GuardianFor many researchers, disappearing soundscapes are a source of grief as well as of scientific interest. “It’s a sad thing to be doing, but it’s also helping me tell a story about the beauty of nature,” said Pijanowski. “As a scientist I have trouble explaining what biodiversity is, but if I play a recording and say what I’m talking about – these are the voices of this place. We can either work to preserve it or not.“Sound is the most powerful trigger of emotions for humans. Acoustic memories are very strong too. I’m thinking about it as a scientist, but it’s hard not to be emotional.”Find more age of extinction coverage here, and follow biodiversity reporters Phoebe Weston and Patrick Greenfield on X for all the latest news and features

Loss of intensity and diversity of noises in ecosystems reflects an alarming decline in healthy biodiversity, say sound ecologistsRead more: No birdsong, no water in the creek, no beating wings: how a haven for nature fell silentSounds of the natural world are rapidly falling silent and will become “acoustic fossils” without urgent action to halt environmental destruction, international experts have warned.As technology develops, sound has become an increasingly important way of measuring the health and biodiversity of ecosystems: our forests, soils and oceans all produce their own acoustic signatures. Scientists who use ecoacoustics to measure habitats and species say that quiet is falling across thousands of habitats, as the planet witnesses extraordinary losses in the density and variety of species. Disappearing or losing volume along with them are many familiar sounds: the morning calls of birds, rustle of mammals through undergrowth and summer hum of insects. Continue reading...

Sounds of the natural world are rapidly falling silent and will become “acoustic fossils” without urgent action to halt environmental destruction, international experts have warned.

As technology develops, sound has become an increasingly important way of measuring the health and biodiversity of ecosystems: our forests, soils and oceans all produce their own acoustic signatures. Scientists who use ecoacoustics to measure habitats and species say that quiet is falling across thousands of habitats, as the planet witnesses extraordinary losses in the density and variety of species. Disappearing or losing volume along with them are many familiar sounds: the morning calls of birds, rustle of mammals through undergrowth and summer hum of insects.

Today, tuning into some ecosystems reveals a “deathly silence”, said Prof Steve Simpson from the University of Bristol. “It is that race against time – we’ve only just discovered that they make such sounds, and yet we hear the sound disappearing.”

“The changes are profound. And they are happening everywhere,” said US soundscape recordist Bernie Krause, who has taken more than 5,000 hours of recordings from seven continents over the past 55 years. He estimates that 70% of his archive is from habitats that no longer exist.

Prof Bryan Pijanowski from Purdue University in the US has been listening to natural sounds for 40 years and taken recordings from virtually all of the world’s main types of ecosystems.

He said: “The sounds of the past that have been recorded and saved represent the sounds of species that might no longer be here – so that’s all we’ve got. The recordings that many of us have [are] of places that no longer exist, and we don’t even know what those species are. In that sense they are already acoustic fossils.”

Burned trees at Lassen Volcanic national park, California, August 2023. More intense wildfires are destroying ecosystems. Photograph: Andri Tambunan/The Guardian

Numerous studies are now documenting how natural soundscapes are changing, being disrupted and falling silent. A 2021 study in the journal Nature of 200,000 sites across North America and Europe found “pervasive loss of acoustic diversity and intensity of soundscapes across both continents over the past 25 years, driven by changes in species richness and abundance”. The authors added: “One of the fundamental pathways through which humans engage with nature is in chronic decline with potentially widespread implications for human health and wellbeing.”

The shift in ecosystem sound is happening in the air, the forests, the soil, and even under the water. During the cold war, the US navy used underwater surveillance systems to track Soviet submarines – and found they struggled to do so near coral reefs due to all the sounds reefs produced. It wasn’t until 1990 that civilian scientists could listen to this classified data.

“Whenever we went to a healthy reef it blew our minds – the cacophony of sounds we heard,” said Simpson, who has been monitoring coral reefs using hydrophones for more than 20 years. “A healthy reef was a carnival of sound.”

At the outset of his research, noise pollution from motorboats was his main concern, but 2015 and 2016 brought significant bleaching events, which resulted in 80% mortality of corals. “They cooked the reef,” he said. More than half of the world’s coral reef cover has now been lost since 1950. If global heating reaches 2C, more than 99% of coral reefs are expected to start dying.

The result of these bleaching events is a “deathly silence”, said Simpson. “We swam around those reefs crying into our masks.”

Mass coral bleaching on the Great Barrier Reef. Photograph: Brett Monroe Garner/Getty Images

“These sounds and silences speak back to us like in a mirror,” said Hildegard Westerkamp, a Canadian sound ecologist who has been recording soundscapes for half a century, during which time wildlife populations have experienced average declines of almost 70%.

She started working on the World Soundscape Project in 1973 with the intention of documenting disappearing ecosystems. “We proposed to start to listen to the soundscape, to everything, no matter how uncomfortable it may be – how uncomfortable the message.”

She said: “The act of listening itself can be both comforting and highly unsettling. But most importantly it tends to connect us to the reality of what we are facing.”

Sound data is now being used alongside visual data as a way to monitor conservation efforts and ecosystem health. More sophisticated and cheaper recording equipment – as well as increasing concerns about environmental destruction – are driving the boom in ecoacoustic monitoring.

As the sophistication of microphones has increased, scientists are using them to monitor life that would not usually be audible to human ears. Marcus Maeder, an acoustic ecologist and sound artist from Switzerland, has been investigating the noises trees make under stress, pushing a microphone into the bark of a tree to listen to the living tissue. Stress sounds like pulses come from within the cavity, he said.

When he first pushed a microphone into the soil of a mountain meadow he discovered it was also alive with noise, “a completely new kingdom of sounds”.

Intensively managed agricultural land, often doused with pesticides, sounds very different, Maeder said: “The soil becomes quiet.”

Researchers listening to soundscapes in the soil to learn more about its biodiversity. Photograph: Graeme Robertson/The Guardian

For many researchers, disappearing soundscapes are a source of grief as well as of scientific interest. “It’s a sad thing to be doing, but it’s also helping me tell a story about the beauty of nature,” said Pijanowski. “As a scientist I have trouble explaining what biodiversity is, but if I play a recording and say what I’m talking about – these are the voices of this place. We can either work to preserve it or not.

“Sound is the most powerful trigger of emotions for humans. Acoustic memories are very strong too. I’m thinking about it as a scientist, but it’s hard not to be emotional.”

Find more age of extinction coverage here, and follow biodiversity reporters Phoebe Weston and Patrick Greenfield on X for all the latest news and features

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Granting legal ‘personhood’ to nature is a growing movement – can it stem biodiversity loss?

The rights-of-nature movement emerged as a response to economic pressures on ecosystems. But the success of projects depends on how well legal liability is defined.

Getty Images/Amy ToensingBiodiversity is declining at rates unprecedented in human history. This suggests the ways we currently use to manage our natural environment are failing. One emerging concept focuses on giving legal rights to nature. Many Indigenous peoples have long emphasised the intrinsic value of nature. In 1972, the late University of Southern California law professor Christopher Stone proposed what then seemed like a whimsical idea: to vest legal rights in natural objects to allow a shift from an anthropocentric to an intrinsic worldview. Ecuador was the first country to enshrine rights of nature in its 2008 constitution. Since then, a growing number of countries have followed in awarding rights of nature. This includes Aotearoa New Zealand, where legal personhood was granted to the Whanganui River, the former national park Te Urewera and soon the Taranaki maunga. At its core, the rights-of-nature movement allows persons to take legal action on behalf of natural ecosystems, as opposed to on behalf of people affected by environmental degradation. Ecosystems can become separate entities with their own agency, in the same way other non-human entities such as charitable trusts and organisations can exist as separate entities in law. Read more: What if whales took us to court? A move to grant them legal personhood would include the right to sue But can the movement help stem the loss of biodiversity? There is no easy answer. Our new research shows that many rights-of-nature examples have emerged because current systems were not enough to protect nature from continued economic pressure from development. We find one of the key features of well designed rights-of-nature frameworks lies in defining who is ultimately liable, and what for. The Whanganui River in New Zealand was granted legal personhood in 2017. Shutterstock/Gabor Kovacs Photography Global case studies The design of rights-of-nature frameworks varies widely in geography, legal status, guardianship and who holds liability. We investigated 14 global rights-of-nature examples and categorised them by types of guardianship. For example, in 2008, Ecuador enshrined rights of nature in its constitution because of decades of pressure from large mining companies. This represents a type of public guardianship where every citizen has the right to take legal action on behalf of nature. In New Zealand on the other hand, the former national park Te Urewera was granted legal personhood with Tūhoe trustees as appointed guardians. A legal person is defined as an entity which has the capacity to enter into contracts, incur debts, sue and be sued in its own right, and to be accountable for illegal activities. We define rights-of-nature cases with appointed guardians as “environmental legal personhoods”. Read more: Rights for nature: How granting a river 'personhood' could help protect it We then compared these cases to explore why they emerged and how they are designed. Who advocated on behalf of the environment? What was the exploiting activity putting pressure on the ecosystem? What is the liability status of the guardians? We found that, overwhelmingly, Indigenous people and local communities acted as advocates. For example, the Whanganui River in New Zealand was granted legal personhood in 2017 as a result of hundreds of years of resistance by Indigenous Māori to aggressive colonisation. Since 1848, the Crown has introduced a steamer service, cleared forest from river banks, extracted sand and gravel, and diverted water into a power scheme. This led to ongoing conflict with Whanganui iwi who raised concerns about the river’s health and the desire to preserve the resource for future generations. Response to sustained economic pressure On the other side of the world, the Mar Menor lagoon in Spain was declared a legal person in 2022 due to strong local community advocacy against pollution from agriculture, mining and sewage. The evidence from our research points to a fundamental divide between local communities and external economic interests. The rights-of-nature movement has come as a response to sustained pressure from economic (urban, agricultural and industrial) activity. The features of design, however, vary significantly. For example, the Victorian state government in Australia established the Victorian Environmental Water Holder, an independent statutory body under the state’s Water Act 1989, as a legal person. It manages water entitlements to improve the health of rivers and wetlands. The entity acts indirectly on behalf of the ecosystems, which is not precisely the same as creating legal rights for rivers themselves. The Whanganui River, on the other hand, was itself declared a legal person. Its appointed guardians have the legal status of a charitable entity. This group includes representatives of Whanganui iwi and the government, supported by members of councils, locals, and recreational and commercial users. Liability matters The recent overturning of two rights-of-nature decisions in particular puts the spot light on the importance of liability. In the US, farming operations challenged the Lake Erie Bill of Rights in 2020, which granted Lake Erie the right to “exist, flourish and naturally evolve”. Farmers argued the bill was too vague and would expose them to liability from fertiliser runoff. In India, the Ganges and Yamuna rivers were granted living-person status, where injury to rivers was to be treated equally to injury to human beings. The decision was challenged on the grounds of uncertainty about who the custodians are and who would be liable to pay damage to the families of those who drowned in the rivers. Both these were legally overturned, meaning these natural entities no longer have rights of nature. This suggests attention to legally defining who is liability for what may be an important building block for the movement to protect biodiversity in the future. Our recommendation is that future rights-of-nature frameworks need to have well-defined legal rights and include appointed guardians, established as separate legal entities with limited liability, as well as the support of representatives from interest groups. This research was carried out in collaboration with my colleagues Claire Armstrong and Margrethe Aanesen in Norway. Viktoria Kahui does not work for, consult, own shares in or receive funding from any company or organisation that would benefit from this article, and has disclosed no relevant affiliations beyond their academic appointment.

Comet Geyser Biosignature Bonanza: NASA Perseverance Mars Rover’s 21st Rock Core

The recent acquisition of Perseverance’s 21st core sample, Comet Geyser, from Bunsen Peak reveals significant geological interest due to its composition of carbonate and silica—key...

Mastcam-Z image (Sol 1088, zcam05068) of the Comet Geyser core. The partially illuminated core is visible in this image of Perseverance’s coring bit. The diameter of the core is 1.3 cm. Credit: NASA/JPL-Caltech/ASUThe recent acquisition of Perseverance’s 21st core sample, Comet Geyser, from Bunsen Peak reveals significant geological interest due to its composition of carbonate and silica—key minerals for preserving biosignatures.After investigating the high-standing bedrock at the Bunsen Peak workspace deep within the Margin Unit, the unique nature and composition of this rock was deemed worthy for collection of Perseverance’s 21th rock core sample, Comet Geyser!Bunsen Peak is named after a prominent peak in Yellowstone National Park, Wyoming, USA, and the namesake for Comet Geyser is the silica-sintered cone geyser also in Yellowstone National Park. Although this rock’s origin remains under investigation and the rover team continues to explore different hypotheses, this core is particularly exciting because it appears to be composed primarily of two minerals: carbonate and silica. Carbonate and silica are both excellent minerals for preserving biosignatures (ancient signs of life). These minerals also have the potential to record the environmental conditions in which they formed, making them important minerals for understanding the habitability of Jezero crater billions of years ago.This illustration depicts NASA’s Perseverance rover studying rocks with its robotic arm. Credit: NASA/JPL-CaltechThe presence of carbonate within the Comet Geyser sample suggests that water, carbon dioxide, and chemical elements derived from rocks or sediments in and around the ancient Jezero crater once reacted here to form carbonate. Carbonate minerals from Earth’s rock record are often used to reconstruct ancient climate—including conditions like temperature, precipitation, and aridity—and the history of life. Similarly, silica phases form when water interacts with rocks or sediments. The composition and crystallinity of silica can reveal the extent of the interaction with water, such as the intensity or duration of weathering and the pressure/temperature conditions during formation.On Earth, biosignatures can be preserved in carbonate and silica for millions of years, or even billions of years in the case of silica. Some of the oldest evidence we have of life on Earth is from rocks that contain fragments of microbial cells that were “permineralized” by silica, a fossilization process that entombs the residues of ancient life and protects them from degradation. Thus, rocks containing these materials are considered among the highest priority samples for investigating whether Jezero crater was once host to microbial life.Perseverance’s 21th core sample at Bunsen Peak represents a significant milestone toward a collection of a scientifically diverse set of samples for eventual return to Earth as part of the Mars Sample Return mission.With rock core #21 now onboard, Perseverance presses forward toward its next strategic objective of investigating a location called Bright Angel, which is a light-toned outcrop exposed in the ancient channel wall of Neretva Vallis. Challenges may arise on this journey, as the terrain ahead is littered with sharp boulders and sand that are proving difficult for the rover’s auto-navigation system. The mission’s rover planners are working hard to manually navigate this tricky terrain. In the meantime, the science team is eagerly anticipating the secrets the rocks of Bright Angel may hold!

Ancient DNA Decoded: Tracing Neurodegenerative Diseases to Prehistoric Herders

A significant study reveals that genes associated with multiple sclerosis were introduced to north-western Europe 5,000 years ago by migrating livestock herders, impacting modern susceptibility...

The new study has found the genes that significantly increase a person’s risk of developing multiple sclerosis (MS) were introduced into north-western Europe around 5,000 years ago by sheep and cattle herders migrating from the east. Credit: SayoStudioA significant study reveals that genes associated with multiple sclerosis were introduced to north-western Europe 5,000 years ago by migrating livestock herders, impacting modern susceptibility to the disease.Researchers have created the world’s largest ancient human gene bank by analyzing the bones and teeth of almost 5,000 humans who lived across Western Europe and Asia up to 34,000 years ago.By sequencing ancient human DNA and comparing it to modern-day samples, the international team of experts mapped the historical spread of genes – and diseases – over time as populations migrated. The ‘astounding’ results have been revealed in four trailblazing research papers published in the journal Nature and provide new biological understanding of debilitating disorders.The extraordinary study involved a large international team led by Professor Eske Willerslev at the Universities of Cambridge and Copenhagen, Professor Thomas Werge at the University of Copenhagen, and Professor Rasmus Nielsen at University of California, Berkeley, and involved contributions from 175 researchers from around the globe.The scientists found:The startling origins of neurodegenerative diseases including multiple sclerosisWhy northern Europeans today are taller than people from southern EuropeHow major migration around 5,000 years ago introduced risk genes into the population in north-western Europe – leaving a legacy of higher rates of MS todayCarrying the MS gene was an advantage at the time as it protected ancient farmers from catching infectious diseases from their sheep and cattleGenes known to increase the risk of diseases such as Alzheimer’s and type 2 diabetes were traced back to hunter gatherersFuture analysis is hoped to reveal more about the genetic markers of autism, ADHD, schizophrenia, bipolar disorder, and depressionNorthern Europe has the highest prevalence of multiple sclerosis in the world. A new study has found the genes that significantly increase a person’s risk of developing multiple sclerosis (MS) were introduced into north-western Europe around 5,000 years ago by sheep and cattle herders migrating from the east.By analyzing the DNA of ancient human bones and teeth, found at documented locations across Eurasia, researchers traced the geographical spread of MS from its origins on the Pontic Steppe (a region spanning parts of what are now Ukraine, South-West Russia, and the West Kazakhstan Region).They found that the genetic variants associated with a risk of developing MS ‘traveled’ with the Yamnaya people – livestock herders who migrated over the Pontic Steppe into North-Western Europe.These genetic variants provided a survival advantage to the Yamnaya people, most likely by protecting them from catching infections from their sheep and cattle. But they also increased the risk of developing MS.“It must have been a distinct advantage for the Yamnaya people to carry the MS risk genes, even after arriving in Europe, despite the fact that these genes undeniably increased their risk of developing MS,” said Professor Eske Willerslev, jointly at the Universities of Cambridge and Copenhagen and a Fellow of St John’s College, an expert in analysis of ancient DNA and Director of the project.He added: “These results change our view of the causes of multiple sclerosis and have implications for the way it is treated.”The age of specimens ranges from the Mesolithic and Neolithic through the Bronze Age, Iron Age, and Viking period into the Middle Ages. The oldest genome in the data set is from an individual who lived approximately 34,000 years ago.The findings provide an explanation for the ‘North-South Gradient’, in which there are around twice as many modern-day cases of MS in northern Europe than in southern Europe, which has long been a mystery to researchers.From a genetic perspective, the Yamnaya people are thought to be the ancestors of the present-day inhabitants of much of North-Western Europe. Their genetic influence on today’s population of southern Europe is much weaker.Previous studies have identified 233 genetic variants that increase the risk of developing MS. These variants, also affected by environmental and lifestyle factors, increase disease risk by around 30 percent. The new research found that this modern-day genetic risk profile for MS is also present in bones and teeth that are thousands of years old.“These results astounded us all. They provide a huge leap forward in our understanding of the evolution of MS and other autoimmune diseases. Showing how the lifestyles of our ancestors impacted modern disease risk just highlights how much we are the recipients of ancient immune systems in a modern world,” said Dr William Barrie, a postdoc in the University of Cambridge’s Department of Zoology and co-author of the paper.Multiple sclerosis is a neurodegenerative disease in which the body’s immune system mistakenly attacks the ‘insulation’ surrounding the nerve fibres of the brain and spinal cord. This causes symptom flares known as relapses as well as longer-term degeneration, known as progression.Professor Lars Fugger, a co-author of the MS study professor and consultant physician at John Radcliffe Hospital, University of Oxford, said: “This means we can now understand and seek to treat MS for what it actually is: the result of a genetic adaptation to certain environmental conditions that occurred back in our prehistory.”Professor Astrid Iversen, another co-author based at the University of Oxford, said: “We now lead very different lives to those of our ancestors in terms of hygiene, diet, and medical treatment options and this combined with our evolutionary history means we may be more susceptible to certain diseases than our ancestors were, including autoimmune diseases such as MS.”The Lundbeck Foundation GeoGenetics Centre – the resource underpinning the discoveriesThe new findings were made possible by the analysis of data held in a unique gene bank of ancient DNA, created by the researchers over the past five years with funding from the Lundbeck Foundation.This is the first gene bank of its kind in the world and already it has enabled fascinating new insights in areas from ancient human migrations, to genetically-determined risk profiles for the development of brain disorders.By analyzing the bones and teeth of almost 5,000 ancient humans, held in museum collections across Europe and Western Asia, the researchers generated DNA profiles ranging across the Mesolithic and Neolithic through the Bronze Age, Iron Age, and Viking period into the Middle Ages. They compared the ancient DNA data to modern DNA from 400,000 people living in Britain, held in the UK Biobank.“Creating a gene bank of ancient DNA from Eurasia’s past human inhabitants was a colossal project, involving collaboration with museums across the region,” said Willerslev.He added: “We’ve demonstrated that our gene bank works as a precision tool that can give us new insights into human diseases, when combined with analyses of present-day human DNA data and inputs from several other research fields. That in itself is amazing, and there’s no doubt it has many applications beyond MS research.”The team now plans to investigate other neurological conditions including Parkinson’s and Alzheimer’s diseases, and psychiatric disorders including ADHD and schizophrenia.They have received requests from disease researchers across the world for access to the ancient DNA profiles, and eventually aim to make the gene bank open access.The research was funded by a €8M grant from the Lundbeck Foundation, and conducted at the Lundbeck Foundation Geogenetics Centre at the University of Copenhagen.Jan Egebjerg, Director of Research at the Lundbeck Foundation, said: “The rationale for awarding such a large research grant to this project, as the Lundbeck Foundation did back in 2018, was that if it all worked out, it would represent a trail-blazing means of gaining a deeper understanding of how the genetic architecture underlying brain disorders evolved over time. And brain disorders are our specific focus area.”References:“Elevated genetic risk for multiple sclerosis emerged in steppe pastoralist populations” by William Barrie, Yaoling Yang, Evan K. Irving-Pease, Kathrine E. Attfield, Gabriele Scorrano, Lise Torp Jensen, Angelos P. Armen, Evangelos Antonios Dimopoulos, Aaron Stern, Alba Refoyo-Martinez, Alice Pearson, Abigail Ramsøe, Charleen Gaunitz, Fabrice Demeter, Marie Louise S. Jørkov, Stig Bermann Møller, Bente Springborg, Lutz Klassen, Inger Marie Hyldgård, Niels Wickmann, Lasse Vinner, Thorfinn Sand Korneliussen, Morten E. Allentoft, Martin Sikora, Kristian Kristiansen, Santiago Rodriguez, Rasmus Nielsen, Astrid K. N. Iversen, Daniel J. Lawson, Lars Fugger and Eske Willerslev, 10 January 2024, Nature.DOI: 10.1038/s41586-023-06618-z“The selection landscape and genetic legacy of ancient Eurasians” by Evan K. Irving-Pease, Alba Refoyo-Martínez, William Barrie, Andrés Ingason, Alice Pearson, Anders Fischer, Karl-Göran Sjögren, Alma S. Halgren, Ruairidh Macleod, Fabrice Demeter, Rasmus A. Henriksen, Tharsika Vimala, Hugh McColl, Andrew H. Vaughn, Leo Speidel, Aaron J. Stern, Gabriele Scorrano, Abigail Ramsøe, Andrew J. Schork, Anders Rosengren, Lei Zhao, Kristian Kristiansen, Astrid K. N. Iversen, Lars Fugger, Peter H. Sudmant, Daniel J. Lawson, Richard Durbin, Thorfinn Korneliussen, Thomas Werge, Morten E. Allentoft, Martin Sikora, Rasmus Nielsen, Fernando Racimo and Eske Willerslev, 10 January 2024, Nature.DOI: 10.1038/s41586-023-06705-1“Population genomics of post-glacial western Eurasia” by Morten E. Allentoft, Martin Sikora, Alba Refoyo-Martínez, Evan K. Irving-Pease, Anders Fischer, William Barrie, Andrés Ingason, Jesper Stenderup, Karl-Göran Sjögren, Alice Pearson, Bárbara Sousa da Mota, Bettina Schulz Paulsson, Alma Halgren, Ruairidh Macleod, Marie Louise Schjellerup Jørkov, Fabrice Demeter, Lasse Sørensen, Poul Otto Nielsen, Rasmus A. Henriksen, Tharsika Vimala, Hugh McColl, Ashot Margaryan, Melissa Ilardo, Andrew Vaughn, Morten Fischer Mortensen, Anne Birgitte Nielsen, Mikkel Ulfeldt Hede, Niels Nørkjær Johannsen, Peter Rasmussen, Lasse Vinner, Gabriel Renaud, Aaron Stern, Theis Zetner Trolle Jensen, Gabriele Scorrano, Hannes Schroeder, Per Lysdahl, Abigail Daisy Ramsøe, Andrei Skorobogatov, Andrew Joseph Schork, Anders Rosengren, Anthony Ruter, Alan Outram, Aleksey A. Timoshenko, Alexandra Buzhilova, Alfredo Coppa, Alisa Zubova, Ana Maria Silva, Anders J. Hansen, Andrey Gromov, Andrey Logvin, Anne Birgitte Gotfredsen, Bjarne Henning Nielsen, Borja González-Rabanal, Carles Lalueza-Fox, Catriona J. McKenzie, Charleen Gaunitz, Concepción Blasco, Corina Liesau, Cristina Martinez-Labarga, Dmitri V. Pozdnyakov, David Cuenca-Solana, David O. Lordkipanidze, Dmitri En’shin, Domingo C. Salazar-García, T. Douglas Price, Dušan Borić, Elena Kostyleva, Elizaveta V. Veselovskaya, Emma R. Usmanova, Enrico Cappellini, Erik Brinch Petersen, Esben Kannegaard, Francesca Radina, Fulya Eylem Yediay, Henri Duday, Igor Gutiérrez-Zugasti, Ilya Merts, Inna Potekhina, Irina Shevnina, Isin Altinkaya, Jean Guilaine, Jesper Hansen, Joan Emili Aura Tortosa, João Zilhão, Jorge Vega, Kristoffer Buck Pedersen, Krzysztof Tunia, Lei Zhao, Liudmila N. Mylnikova, Lars Larsson, Laure Metz, Levon Yepiskoposyan, Lisbeth Pedersen, Lucia Sarti, Ludovic Orlando, Ludovic Slimak, Lutz Klassen, Malou Blank, Manuel González-Morales, Mara Silvestrini, Maria Vretemark, Marina S. Nesterova, Marina Rykun, Mario Federico Rolfo, Marzena Szmyt, Marcin Przybyła, Mauro Calattini, Mikhail Sablin, Miluše Dobisíková, Morten Meldgaard, Morten Johansen, Natalia Berezina, Nick Card, Nikolai A. Saveliev, Olga Poshekhonova, Olga Rickards, Olga V. 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