Stunning amber fossil reveals ‘Last of Us'-type fungus likely lived alongside dinosaurs
Fungus can be seen growing out of the head of a fly encased in 99 million-year-old amber. Nanjing Institute of Geology and Palaeontology; Chinese Academy of Sciences/NIGPAS via CNN Newsource
A glob of 99 million-year-old amber has preserved an ancient fly in horror show fashion: with the mushroom-like fruiting body of zombie fungus bursting forth from its head.
The insect, along with a second specimen of a young ant infected with a similar fungus, are two of the oldest examples of a bizarre natural phenomenon that involves fungal parasites hijacking the bodies of their hosts before ultimately killing them.
'Amber gives us this opportunity to visualize the ancient ecological relationships preserved in fossils,' said Yuhui Zhuang, a doctoral student at the Institute of Paleontology at Yunnan University in southwestern China.
'Overall, these two fossils are very rare, at least among the tens of thousands of amber specimens we've seen, and only a few have preserved the symbiotic relationship between fungi and insects,' added Zhuang, the lead author of a study on the fossils published June 11 in the journal Proceedings of the Royal Society B: Biological Sciences.
Zhuang and his colleagues named two previously unknown species of ancient fungi of the genus Ophiocordyceps from their research on the amber, which involved using optical microscopes to study the tiny pieces of amber and micro-computed tomography to make 3D images of the fungi-infected insects. They found the first, named Paleoophiocordyceps gerontoformicae, on the ant and the second, Paleoophiocordyceps ironomyiae, on the fly.
Some Ophiocordyceps species that prey on ant species today are known as 'zombie-ant fungi' because the fungal parasite can manipulate the behavior of its hosts for its own benefit. The phenomenon inspired the video game behind the HBO TV show 'The Last of Us.' HBO shares a parent company, Warner Bros. Discovery, with CNN.
'The discovery of these two fossils suggests that terrestrial ecosystems were already very complex, and that Ophiocordyceps, in particular, may have begun to act as 'predators' of insects in the Cretaceous period, regulating the populations of certain groups,' Zhuang said via email.
Zombie fungi then and now
Today, parasitic fungi, also known as entomopathogenic fungi, infect a wide range of insect groups, including ants, flies, spiders, cicadas and beetles, according to London's Natural History Museum.
Amber fungus
An ant infected with parasitic fungus trapped in 99 million-year-old amber. Nanjing Institute of Geology and Palaeontology, Chinese Academy of Sciences/NIGPAS via CNN Newsource
In the case of carpenter ants, the spore of the Ophiocordyceps fungus lands on the head of an ant, enters its brain through a weak area in the insect's exoskeleton and takes control of the ant to facilitate its spread, said Conrad Labandeira, senior scientist and curator of fossil arthropods at the Smithsonian Museum of Natural History in Washington, DC, who wasn't involved in the study.
Paleoophiocordyceps likely zombified its hosts in similar ways, according to Labandeira.
'It appears that ants, for some reason, were targeted early for zombification, and currently are the major recipients of this parasitoid fungus,' Labandeira said. He added that flies are only rarely affected by these parasitic fungi today, making a fossilized example particularly interesting.
The species of fungus that infected the prehistoric ant may be an ancestor of zombie-ant fungi, and thus likely controlled its host's body in similar ways, said study coauthor João Araújo, mycology curator and assistant professor at the Danish Natural History Museum. Very few specimens of ancient parasitic fungi have been discovered, so little is known about their evolution.
The two insects were likely killed by the fungi before getting trapped in the sticky tree resin that ultimately forms amber, said Araújo, noting that most entomopathogenic fungi kill their hosts to produce the fruiting body.
This lost parasite diversity had a significant role in shaping the planet we live on today, said Phil Barden, an associate professor at New Jersey Institute of Technology's department of biological sciences, who has worked on amber fossils.
'Even as we find a remarkable diversity of organisms entombed in amber, it's important to remember that we really do only capture the smallest glimpse. For any given fossil ant or beetle, we can imagine all of the parasites, fungus, and bacteria that such insects support,' Barden, who wasn't involved in the new study, said via email.
It was 'fascinating to see some of the strangeness of the natural world that we see today was also present at the height of the age of the dinosaurs,' said study coauthor Edmund Jarzembowski, a professor and associate scientist at London's Natural History Museum.
The fossil is the latest to emerge from Myanmar's rich amber fields.
While amber fossils have been some of paleontology's most exciting finds in recent years, ethical concerns about the provenance of amber from the civil war-torn region have emerged.
Zhuang said the fossils were sourced from Myanmar's amber markets. The study noted that the specimens were acquired before 2017 and, to the authors' knowledge, were not involved in armed conflict or ethnic strife.
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CTV News
16 hours ago
- CTV News
Stunning amber fossil reveals ‘Last of Us'-type fungus likely lived alongside dinosaurs
Fungus can be seen growing out of the head of a fly encased in 99 million-year-old amber. Nanjing Institute of Geology and Palaeontology; Chinese Academy of Sciences/NIGPAS via CNN Newsource A glob of 99 million-year-old amber has preserved an ancient fly in horror show fashion: with the mushroom-like fruiting body of zombie fungus bursting forth from its head. The insect, along with a second specimen of a young ant infected with a similar fungus, are two of the oldest examples of a bizarre natural phenomenon that involves fungal parasites hijacking the bodies of their hosts before ultimately killing them. 'Amber gives us this opportunity to visualize the ancient ecological relationships preserved in fossils,' said Yuhui Zhuang, a doctoral student at the Institute of Paleontology at Yunnan University in southwestern China. 'Overall, these two fossils are very rare, at least among the tens of thousands of amber specimens we've seen, and only a few have preserved the symbiotic relationship between fungi and insects,' added Zhuang, the lead author of a study on the fossils published June 11 in the journal Proceedings of the Royal Society B: Biological Sciences. Zhuang and his colleagues named two previously unknown species of ancient fungi of the genus Ophiocordyceps from their research on the amber, which involved using optical microscopes to study the tiny pieces of amber and micro-computed tomography to make 3D images of the fungi-infected insects. They found the first, named Paleoophiocordyceps gerontoformicae, on the ant and the second, Paleoophiocordyceps ironomyiae, on the fly. Some Ophiocordyceps species that prey on ant species today are known as 'zombie-ant fungi' because the fungal parasite can manipulate the behavior of its hosts for its own benefit. The phenomenon inspired the video game behind the HBO TV show 'The Last of Us.' HBO shares a parent company, Warner Bros. Discovery, with CNN. 'The discovery of these two fossils suggests that terrestrial ecosystems were already very complex, and that Ophiocordyceps, in particular, may have begun to act as 'predators' of insects in the Cretaceous period, regulating the populations of certain groups,' Zhuang said via email. Zombie fungi then and now Today, parasitic fungi, also known as entomopathogenic fungi, infect a wide range of insect groups, including ants, flies, spiders, cicadas and beetles, according to London's Natural History Museum. Amber fungus An ant infected with parasitic fungus trapped in 99 million-year-old amber. Nanjing Institute of Geology and Palaeontology, Chinese Academy of Sciences/NIGPAS via CNN Newsource In the case of carpenter ants, the spore of the Ophiocordyceps fungus lands on the head of an ant, enters its brain through a weak area in the insect's exoskeleton and takes control of the ant to facilitate its spread, said Conrad Labandeira, senior scientist and curator of fossil arthropods at the Smithsonian Museum of Natural History in Washington, DC, who wasn't involved in the study. Paleoophiocordyceps likely zombified its hosts in similar ways, according to Labandeira. 'It appears that ants, for some reason, were targeted early for zombification, and currently are the major recipients of this parasitoid fungus,' Labandeira said. He added that flies are only rarely affected by these parasitic fungi today, making a fossilized example particularly interesting. The species of fungus that infected the prehistoric ant may be an ancestor of zombie-ant fungi, and thus likely controlled its host's body in similar ways, said study coauthor João Araújo, mycology curator and assistant professor at the Danish Natural History Museum. Very few specimens of ancient parasitic fungi have been discovered, so little is known about their evolution. The two insects were likely killed by the fungi before getting trapped in the sticky tree resin that ultimately forms amber, said Araújo, noting that most entomopathogenic fungi kill their hosts to produce the fruiting body. This lost parasite diversity had a significant role in shaping the planet we live on today, said Phil Barden, an associate professor at New Jersey Institute of Technology's department of biological sciences, who has worked on amber fossils. 'Even as we find a remarkable diversity of organisms entombed in amber, it's important to remember that we really do only capture the smallest glimpse. For any given fossil ant or beetle, we can imagine all of the parasites, fungus, and bacteria that such insects support,' Barden, who wasn't involved in the new study, said via email. It was 'fascinating to see some of the strangeness of the natural world that we see today was also present at the height of the age of the dinosaurs,' said study coauthor Edmund Jarzembowski, a professor and associate scientist at London's Natural History Museum. The fossil is the latest to emerge from Myanmar's rich amber fields. While amber fossils have been some of paleontology's most exciting finds in recent years, ethical concerns about the provenance of amber from the civil war-torn region have emerged. Zhuang said the fossils were sourced from Myanmar's amber markets. The study noted that the specimens were acquired before 2017 and, to the authors' knowledge, were not involved in armed conflict or ethnic strife.


CBC
2 days ago
- CBC
Fungus showing promise as tick killer, say Acadia researchers
New Researchers have been studying the lethality of a common fungus on blacklegged and dog ticks A common, naturally growing fungus that is harmless to humans but lethal to ticks in some cases is showing promise as a natural insecticide after a year of study at Acadia University. Researchers at the Faraone Lab have been studying the effects of a soil fungus called Clonostachys rosea on blacklegged ticks — which can carry the bacteria that cause Lyme disease — as well as the hardier dog tick. "We found that actually this fungus works really well at killing the blacklegged ticks," Nicoletta Faraone, the head of the lab and an associate professor in the chemistry department, told CBC Radio's Information Morning Nova Scotia on Monday. The lab's findings could be a significant development in a province that has the most ticks in Canada, with populations growing in rural and urban areas. There is no vaccine for Lyme disease, which, if left untreated, can lead to severe heart, joint and nervous system symptoms. The lethality of the fungus was discovered when Luís Anholeto, a research associate, noticed ticks collected from the Harvest Moon Trail in Coldbrook, N.S., and taken back to the Faraone Lab were unexpectedly dying after a few days. Upon investigation, the researchers determined the fungus, which had attached to the tiny arachnids, was the culprit. Fungus 'slowly disables' ticks "In short, the fungus slowly disables and kills the ticks," Anholeto told Information Morning Nova Scotia. "So they won't be able to find a host … which can help also to reduce the transmission of the bacteria that causes the [Lyme] disease." So far, the lab's research has shown the fungus is more effective at killing blacklegged ticks than dog ticks. "We have observed that the fungus kill about 70 per cent of the blacklegged ticks. While for the dog tick, we see a 30 per cent of mortality," said Faraone. "We were not very surprised of this because we know that the dog ticks are a little bit bigger, more resistant, more stubborn compared to the blacklegged ticks." Anholeto said they are still trying to understand what happens from the time the fungus attaches to the tick's outer shell and grows into its body to when it ultimately causes death. It appears the fungus produces a substance that breaks down the tick and damages the internal tissues. The process takes at least seven days, but the researchers have been observing better mortality after two weeks. Could be used 'on your backyard' The Faraone Lab is using nanatechnoloy in its research to isolate the active ingredient in the fungus. Spores can then be turned into a powder that can be sprayed for tick control. "For example, on your backyard for managing a tick population," said Faraone. "So the idea is having this product potentially down the road to be developed." Similar fungi are already used in agriculture for things like crop protection and pest management. Faraone said they are now doing more in-depth studies to find the "most optimal concentration of spores." "We want to see if we're able to improve the mortality of the dog tick, which is a little bit more resistant, so it can be easily applied for managing both the species that are very common and they are very present in Nova Scotia," she said. The Canadian Lyme Disease Foundation provided funding for the initial research project, which is in collaboration with Laura Ferguson, an assistant professor in Acadia's biology department. The bulk of the research has been conducted and the lab is now working to get it published and carry the research further.

National Post
18-06-2025
- National Post
SINOVAC Announces New Board Member
Article content BEIJING — Sinovac Biotech Ltd. (Nasdaq: SVA) (' SINOVAC ' or the ' Company '), a leading provider of biopharmaceutical products in China, today announced that it received a resignation notice from David Guowei Wang, a member of the board of directors (the ' Board ') and a member of the Audit Committee, Compensation Committee and the Corporate Governance and Nominating Committee of the Board, effective immediately. Mr. Wang's resignation was due to increased professional commitments and time constraints and was not the result of any disagreement with the Company on any matter relating to the Company's operations, policies or practices. Article content The Board has appointed Geoffrey C. Hsu, CFA, as a director to the Board to fill the vacancy created by such resignation under the laws of Antigua and Barbuda. Mr. Hsu has also been elected as a member of the Audit Committee, Compensation Committee and the Corporate Governance and Nominating Committee of the Board. Article content Mr. Hsu is a General Partner and Portfolio Manager at OrbiMed, one of the world's largest dedicated healthcare investment firms, managing over $17 billion in assets. Mr. Hsu brings extensive investment experience in the biotechnology industry and China. He joined OrbiMed in 2002 and has been a Portfolio Manager since 2005, leading the public equity team's biotech and emerging markets efforts. He has been responsible for overseeing the firm's public equity investments in China since 2009 and the firm's investment in SINOVAC since 2013. Prior to joining OrbiMed, Mr. Hsu worked as a financial analyst in the healthcare investment banking group at Lehman Brothers. He received an A.B. degree summa cum laude from Harvard University and holds an M.B.A. from Harvard Business School. Article content Following this appointment, the Board consists of four members, including Dr. Chiang Li (Chairman), Mr. Yuk Lam Lo, Mr. Sven H. Borho, CFA, and Mr. Hsu. The Audit Committee of the Board consists of three members, including Mr. Borho, Mr. Lo and Mr. Hsu. The Compensation Committee and the Corporate Governance and Nominating Committee of the Board each consists of Dr. Li, Mr. Lo and Mr. Hsu. Article content About SINOVAC Article content Sinovac Biotech Ltd. (SINOVAC) is a China-based biopharmaceutical company that focuses on the R&D, manufacturing, and commercialization of vaccines that protect against human infectious diseases. Article content SINOVAC's product portfolio includes vaccines against COVID-19, enterovirus 71 (EV71) infected hand-foot-mouth disease (HFMD), hepatitis A, varicella, influenza, poliomyelitis, pneumococcal disease, etc. Article content The COVID-19 vaccine, CoronaVac ®, has been approved for use in more than 60 countries and regions worldwide. The hepatitis A vaccine, Healive ®, passed WHO prequalification requirements in 2017. The EV71 vaccine, Inlive ®, is an innovative vaccine under 'Category 1 Preventative Biological Products' and commercialized in China in 2016. In 2022, SINOVAC's Sabin-strain inactivated polio vaccine (sIPV) and varicella vaccine were prequalified by the WHO. Article content SINOVAC was the first company to be granted approval for its H1N1 influenza vaccine Panflu.1 ®, which has supplied the Chinese government's vaccination campaign and stockpiling program. The Company is also the only supplier of the H5N1 pandemic influenza vaccine, Panflu ®, to the Chinese government stockpiling program. Article content SINOVAC continually dedicates itself to new vaccine R&D, with more combination vaccine products in its pipeline, and constantly explores global market opportunities. SINOVAC plans to conduct more extensive and in-depth trade and cooperation with additional countries, and business and industry organizations. Article content Article content Article content