It’s possible that I shall make an ass of myself. But in that case one can always get out of it with a little dialectic. I have, of course, so worded my proposition as to be right either way (K.Marx, Letter to F.Engels on the Indian Mutiny)
Monday, July 17, 2023
Bacteria discreetly dwelling in throat revealed to be primary source of Strep A transmission
Breakthrough research has found that Group A Streptococcus (GAS) infections are more likely transmitted from asymptomatic throat carriage than skin-to-skin contact in communities with high rates of infection.
THE PETER DOHERTY INSTITUTE FOR INFECTION AND IMMUNITY
IMAGE: MAXIMUM-LIKELIHOOD PHYLOGENY OF 320 WHOLE-GENOME SEQUENCES OF STREPTOCOCCUS PYOGENESview more
CREDIT: DOHERTY INSTITUTE
Breakthrough research has found that Group A Streptococcus (GAS) infections are more likely transmitted from asymptomatic throat carriage than skin-to-skin contact in communities with high rates of infection.
This major discovery has far-reaching implications for public health approaches, vaccine development and future research as it challenges previous understanding of how the bacterium is spread.
GAS (Streptococcus pyogenes), commonly found on the skin and in the throat, can cause infections ranging from sore throats and impetigo (skin infections) to deadly bloodstream infections. In places like remote First Nations communities where the pathogen is widespread, constant exposure to GAS can lead to severe and life-threatening conditions such as rheumatic heart disease.
In this study, published in the journal The Lancet Microbe, the team of scientists shed new light on GAS transmission dynamics in high-risk settings where the bacteria are prevalent, to inform the development of more effective strategies for prevention and control.
Researchers, led by the Peter Doherty Institute for Infection and Immunity (Doherty Institute), in collaboration with Menzies School of Health Research and Telethon Kids Institute, analysed the genetic makeup of hundreds of GAS bacterial samples collected 20 years ago from throats and impetigo lesions in remote First Nations communities in the Northern Territory, Australia.
Lead author Dr Jake Lacey, a University of Melbourne researcher at the Doherty Institute, explained that genome sequencing played a pivotal role in determining the contribution of impetigo and asymptomatic throat carriage to GAS transmission.
“Our analysis revealed direct connections between isolates recovered from the skin and throat, challenging common thinking that skin-to-skin contact is the primary mode of transmission. In fact, we found that bacteria found in the throat of people who are not showing any symptoms of infections were the likely source of infection in 63 per cent of cases,” Dr Lacey explained.
Professor Bart Currie, from the Global and Tropical Health Division at Menzies School of Health Research, said that these insights provide valuable clues for better controlling skin infections in remote communities, where limited knowledge of bacterial transmission had posed challenges until now.
“With this new genome knowledge we have been able to map out the spread of the bacteria within and between households. This transmission mapping exercise is particularly important for addressing the disproportionate burden of GAS infections on First Nations Australians in remote communities," Professor Currie said.
The Royal Melbourne Hospital’s Professor Steven Tong, Infectious Diseases Physician at the Doherty Institute and senior author of the research paper, underscored the implications of the findings.
“Our research suggests that public health approaches should not solely focus on skin infections but also consider the role of throat carriage in GAS transmission. For instance, vaccines targeting bacteria in the throat may offer greater efficacy in preventing the spread of infection compared to those that only target disease,” Professor Tong said.
“The burden of GAS infection documented in this study also reiterates the fundamental role of primordial prevention in First Nations health initiatives.
“Importantly, this work also prompts researchers to now consider the importance of throat carriage when assessing the transmission dynamics of GAS.”
Evaluating the role of asymptomatic throat carriage of Streptococcus pyogenes in impetigo transmission in remote Aboriginal communities in Northern Territory, Australia: a retrospective genomic analysis
Survival of children with acute lymphatic leukemia further increased
The five-year survival of all children with acute lymphatic leukemia (ALL) has continued to increase to 94%. This is evident from a study of 800 Dutch children. Within the study, modified treatment protocols for four subgroups were examined.
The five-year survival of all children with acute lymphatic leukemia (ALL) has continued to increase to 94%. This is evident from a study of 800 Dutch children. Within the study, modified treatment protocols for four subgroups were examined. The modifications were found to have positive effects on survival and quality of life. For example, the risk of disease recurrence became as much as three times smaller for children with an aggressive form of leukemia. Says Prof. Dr. Rob Pieters: ‘The five-year survival rate for children with acute lymphatic leukemia has increased dramatically since the 1960s, from zero to 94%, but the last steps are the most difficult.’
Acute lymphatic leukemia is the most common form of childhood cancer in the Netherlands. Every year, about 110 children are diagnosed with this form of cancer. The prognosis is good for many children, but not yet for every child. To improve survival rates and quality of life for all children with leukemia, the treatment protocol is constantly being adapted over the years on the basis of new scientific insights.
The study results of the ALL-11 treatment protocol, led by researchers at the Princess Máxima Center, were published today in the scientific journal Journal of Clinical Oncology.
Three times lower risk of return
Between April 2012 and July 2020, more than 800 children in the Netherlands were treated according to this protocol. The study looked at the effect of modified treatment in specific groups of children with leukemia, including those with a so-called Ikaros abnormality. Prof. Dr. Rob Pieters, pediatric oncologist and medical director of the Princess Máxima Center, led the clinical study. He says: ‘There is broad interest worldwide in this research, because it was still unknown how to improve therapy for children with Ikaros leukemia.’
Children with an Ikaros abnormality in the DNA of their leukemia cells are more likely to have their disease return after treatment. In this study, these children received an additional year of ‘maintenance phase’ chemotherapy on top of the first two years of treatment. This modification led to a three times lower risk of the cancer returning: it only happened in 9% of them, compared to 26% of children in the previous treatment protocol.
Less severe treatment proves safe
In the ALL-11 protocol, doctors and researchers also looked at the effect of less intensive treatment for three other groups of children. These included children with a DNA abnormality in their leukemia cells that is associated with a very high cure rate, and children with Down syndrome who suffer a lot of side effects from therapy. These children were given lower amounts of anthracyclines, a particular type of chemotherapy that increases the risk of heart damage and infections. The modification turned out to be a good choice: the children had the same or even better survival rate while their quality of life improved due to a lower risk of infections and less risk of heart damage.
More cure with fewer side effects
Prof. Dr. Rob Pieters: ‘The five-year survival rate for children with acute lymphoblastic leukemia has increased tremendously since the 1960s, from zero to 94%, but the last steps are the hardest. We are now one step closer to curing all children with ALL. We have also been able to remove a drug that gives risk of heart damage largely from the treatment of children with less aggressive disease. So the latest results for children with leukemia fit exactly with our mission: more cure, with fewer side effects.'
IMAGE: GRAPH DEPICTING CANOPY INFORMATION OBTAINED FROM GEDI.view more
CREDIT: NICOLLE FULLER AND CHRIS DOUGHTY
We know less about the rainforest canopy, where most of the world’s species live than we do about the surface of Mars or the bottom of the ocean. However, that is about to change thanks to GEDI—a NASA space laser that has provided a detailed structure of the world’s rainforests for the first time ever.
“Tropical forests are mainly unstratified especially in Amazonia and regions with lower fertility or higher temperatures” reads the title of the recently published paper in Environmental Research Ecology that details the laser’s findings. Authored by researchers from the U.S., the U.K. and Singapore, Christopher Doughty, professor in NAU’s School of Informatics, Computing, and Cyber Systems and first author on the study, believes this research is crucial—and long overdue—in finding out more about the tropical ecosystems.
“Most of the world’s species live in tropical forests and most of those make use of the canopy, and yet, we know so little,” Doughty said. “Rainforest structure matters because it controls how animals access resources and escape predators, and these findings will help us understand tropical forest animal’s susceptibility to climate change.”
Research into forest canopies has come a long way. Early western visitors described tropical forests as horror vacui (nature abhorring a vacuum) since vegetation was “anxious to fill every available space with stems and leaves.” Later, as scientists began to study tropical forests, they categorized the lush flora into forest layers—a thick upper crown and a thick mid-layer with a thin layer in between. However, this was only observed in a few well-studied locations. The structure across most tropical forests was still unknown.
Then came GEDI, the Global Ecosystem Dynamics Investigation.
“A key difference between GEDI and many other satellites is its measurement of three-dimensional canopy structure,” said Hao Tang, professor in the Department of Geography at the National University of Singapore (NUS) and co-author on the paper. Tang, who is also a principal investigator at the NUS Centre for Nature-based Climate Solutions, added, “Conventional satellites, while providing valuable data on land cover and canopy greenness, often lack the detailed vertical information offered by GEDI. This vertical information is crucial for understanding ecosystem dynamics, carbon storage and biodiversity that cannot be easily seen from typical satellite images.”
Launched in late 2018, NASA’s GEDI shoots an invisible laser from the International Space Station into Earth’s forests thousands of times a day. Depending on the amount of energy returned to the satellite, it can provide a detailed 3D map that shows where the leaves and branches are in a forest and how they change over time. This will help researchers understand the amounts of biomass and carbon forests store and how much they lose when disturbed—vital information for understanding Earth’s carbon cycle and how it is changing.
Doughty, Tang and the other authors of the paper analyzed GEDI data across all tropical forests and found that the structure was simpler and more exposed to sunlight than previously thought. Data also revealed that most tropical forests (80 percent of the Amazon and 70 percent of Southeast Asia and the Congo Basin) have a peak in the number of leaves at 15 meters instead of at the canopy top, debunking the fullest-at-the-top theory of early researchers. While forests vary, a key finding that seemed to remain constant in every scenario was that deviation from more ideal conditions (like lower fertility or higher temperatures) leads to shorter, less stratified forests with lower biomass.
“It was really surprising to see the dominance of this structure type because it differs from what we had learned in the classic textbooks on the topic,” Doughty said. “These finding will not only help us understand how the millions of species that live in a rainforest canopy might acclimate to changing temperatures, but also how much carbon these forests hold and how good they are at fighting climate change.”
JOURNAL
Environmental Research Ecology
METHOD OF RESEARCH
Data/statistical analysis
SUBJECT OF RESEARCH
Not applicable
ARTICLE TITLE
Tropical forests are mainly unstratified especially in Amazonia and regions with lower fertility or higher temperatures
ARTICLE PUBLICATION DATE
17-Jul-2023
Prof. Chilai Chen’s team developed the first deep-sea mass spectrometer of China and successfully tested at deep sea
IMAGE: THE DEEP-SEA MASS SPECTROMETER USES 24 V DC POWER AND HAS AN AVERAGE POWER CONSUMPTION OF LESS THAN 60 W DURING OPERATION AND LESS THAN 10 W DURING STANDBY. ITS PHYSICAL SIZE IS Φ240 MM×1300 MM, WITH A CORE MASS OF 14.2 KG. THE DETECTABLE MASS RANGE IS 1–200 DA, WITH A MASS RESOLUTION OF LESS THAN 1 DA AND THE SCANNING TIME FOR A SINGLE MASS IS LESS THAN 15 MS. THE DETECTION LIMITS FOR DISSOLVED N2, O2, AR, AND CO2 UNDER ATMOSPHERIC PRESSURE ARE 0.021 ΜG/L, 0.068 ΜG/L, 0.017 ΜG/L, AND 0.014 ΜG/L. THE DEEP-SEA MASS SPECTROMETER OPERATED CONTINUOUSLY AND STABLY FOR MORE THAN 8 H UNDER A SIMULATED WATER DEPTH OF 5800 M, AND IT ALSO ACHIEVED CONTINUOUS ONLINE DETECTION FOR 25.8 H IN THE SEA AREA OF −1388 M DEPTH IN THE SOUTH CHINA SEA, OBTAINING DISSOLVED GAS CONCENTRATION-TIME AND DEPTH-CONCENTRATION CURVES. ART BY CHEN’S GROUP.view more
The study is led by Prof. Chilai Chen (Hefei Institutes of Physical Science, Chinese Academy of Sciences).
The detection of dissolved gases in the deep sea is of great significance in exploring the origin and early evolution of life, understanding the interaction between the Earth's spheres, studying the geological profile of the Earth, searching for underwater oil, gas, and mineral resources, and researching global climate change. Changes in the concentrations of dissolved oxygen and nitrogen can indirectly or directly reflect the activity patterns of organisms such as plankton, phytoplankton, bacteria, and viruses in the deep sea. In situ detection of these changes is meaningful for studying biodiversity, especially in cold seeps and hydrothermal areas, which has special significance for the study of the origin of life. Typical greenhouse gases such as methane (CH4) and carbon dioxide (CO2) are important factors causing global warming. In the deep sea, they usually diffuse into the surrounding area in the form of bubbles or fluids. In situ detection of the gases is important for studying biogeochemical cycles, marine environments, and global climate change. Additionally, methane (CH4) is an important indicator for the detection of natural gas resources on the seabed.
The traditional method for detecting dissolved gases in the deep sea is offline detection, which combines pressure sampling with laboratory analysis. This method has the advantages of high detection accuracy and simultaneously detecting multiple substances. However, it has limitations in time and spatial resolution, making it difficult to perform continuous analysis of the temporal and spatial distribution of substances. An effective means of addressing this issue is online detection technology. Currently, the main underwater dissolved gas online detection technologies include electrochemical sensors based on gas-sensitive materials, various spectrometers based on optical measurement methods, and underwater mass spectrometers based on mass analyzers. Amongst these, electrochemical sensors have the advantages of small size, low power consumption, low cost, and the potential for large-scale deployment, making them highly promising in the field of deep-sea detection. However, their extensive use still requires further shortening of equipment response time, expanding the concentration detection range, and improving their anti-interference capabilities. Spectrometers based on optical measurement methods have small size and rapid characteristics and have developed rapidly in recent years. They have been successfully applied to the online detection of dissolved methane, carbon dioxide, and their isotopes in the ocean. The development of this technology provides a technical means for the detection of dissolved gases in the deep sea. However, this technology needs to further expand the types of detectable substances, shorten the detection time, and further improve the sustainable working time in the future.
Mass spectrometry is an analytical technique that works under vacuum conditions and is based on separating ions for their mass-to-charge ratios. Due to its advantages of fast response, low detection limit, high specificity, simultaneous detection of multiple substances, strong anti-interference ability, and ability to provide a large amount of elemental, structural, and isotopic information of chemical substances, it has been widely used in fields such as food safety, biomedical, environmental protection, and ecological health. The application of mass spectrometry to the in-situ online detection of dissolved gases in the deep sea is an important advancement in marine chemistry research.
Since its inception, deep-sea mass spectrometry has undergone more than 30 years of development. The world's first deep-sea mass spectrometer, a gas chromatography-mass spectrometer, was developed by the Hamburg University of Technology in Germany in 1998, primarily used for cleaning up chemical pollutants at sea. However, due to its complex detection process, long detection time, large volume, and challenges in meeting the requirements of underwater in-situ analysis, the development of this technology has been relatively limited.
In 1999 and 2001, the research team at the University of South Florida successively unveiled the first-generation deep-sea mass spectrometry based on quadrupole mass analyzers and the second-generation underwater mass spectrometry (UMS) based on ion trap mass analyzers. In the following five years, the team carried out instrument optimization and shallow water online detection work. They conducted experiments in Bayboro Harbor, plotted the three-dimensional concentration distribution maps of toluene and dimethyl sulfide, and obtained time-concentration curves of dissolved gases such as benzene, carbon dioxide, and argon in Lake Maggiore. In 2007, the team moved to RSI Company to continue deep-sea mass spectrometry research and successively obtained depth-concentration curves of carbon dioxide, methane, ethanol, and propane in deep-sea cold springs, hydrothermal areas, and other regions. They also conducted research on marine oil spills and the total inorganic dissolved carbon in the seabed.
The MIT underwater mass spectrometry research team publicly released their UMS based on a cycloidal mass analyzer in 2002. This device has a power consumption of 20 W, a weight of 25 kg, a detection time of less than 5 s, and can detect a mass range of 1–200 amu, with a maximum operating depth of 25 m. In principle, this UMS uses a double-focusing method based on electric and magnetic fields and a vacuum system based on an ion pump, which greatly improves the volume and weight of the equipment. Over the next five years, the team carried out underwater experiments and online detection work in shallow water areas. They obtained methane concentration distribution maps in the range of 0–25 m deep in Lake Superior and dissolved oxygen, dissolved nitrogen, and dissolved argon concentration distribution maps in the range of 0–5 m deep in Boston Harbor. In 2007, the Woods Hole Oceanographic Institution developed a new underwater mass spectrometer based on the work of the MIT team. This device has a weight of 13 kg, a maximum depth of over 5000 m, a mass detection range of 1–200 amu, a mass resolution of less than 0.1 amu, and a response time of less than 5 s. Based on this underwater mass spectrometer, they obtained concentration distribution maps of dissolved oxygen (O2), methane (CH4), and carbon dioxide (CO2) in the depth range of 0–350 m. Subsequently, they conducted related research work such as deep-sea oil exploration, pipeline leaks, and atmospheric circulation.
Apart from the two main research branches mentioned above, other institutions such as the University of Hawaii, Harvard University, and the Alfred Wegener Institute for Polar and Marine Research in Germany have also conducted research on underwater mass spectrometry. In 2005, engineers at the University of Hawaii's School of Ocean and Earth Science and Technology publicly released their first underwater mass spectrometer, and subsequently carried out more systematic instrument optimization and deep-sea in-situ detection work. The Alfred Wegener Institute released its first underwater mass spectrometer in 2008 and conducted deep-sea in-situ detection work. Harvard University released its first underwater mass spectrometer in 2010 and subsequently conducted research on the origin and early evolution of life, inter-layer interactions, and global environmental changes.
The work of the above research teams has made important contributions to the characteristics of deep-sea cold seeps and hydrothermal regions, exploring the origin and early evolution of life, studying the geological overview of the earth, searching for seabed resources, evaluating oil and gas and mineral resource reserves, analyzing the harm of pollution to the marine ecosystem, and studying global environmental changes. Overall, the research on UMS is still in the exploratory stage, and there are still many challenges to overcome. Currently, relevant research focuses on improving detection accuracy, reducing volume, and power consumption to achieve long-term, stable, and accurate detection in the deep sea.
UMS is still in its early stages in China, and no public reports are currently available. Based on previous research on the development of conventional mass spectrometry and atmospheric pressure ion mobility spectrometry technology, this study conducted research on underwater mass spectrometry. A breakthrough was made in high-pressure injection technology for underwater mass spectrometry, and vacuum maintenance technology under high-pressure and low-temperature environments, as well as long-term unmanned self-control technology, were developed to realize the miniaturization of high-precision underwater mass spectrometry technology and achieve online high-precision detection of small molecules and volatile organic compounds in seawater.
See the article:
Development and application of an underwater mass spectrometer for in situ detection of deep-sea dissolved gases
IMAGE: HOW THE GPT-4 WORKS ON AUTOMATED DATA MINING FOR BUILDING ENERGY MANAGEMENTview more
CREDIT: CHAOBO ZHANG, JIE LU, YANG ZHAO
The building sector is a significant contributor to global energy consumption, accounting for approximately 33% of the world's final energy usage. Recently, data mining technologies have showed powerful capacities for revealing energy waste and providing energy-saving tips to building owners. These technologies have the ability to save approximately 15%-30% of the energy consumed in buildings. However, the practical application of data mining technologies has been limited due to its labor-intensive nature, resulting in a scarcity of real-world use cases.
In a study published in the KeAi journal Energy and Built Environment, a collaborative team of researchers from China and the Netherlands has successfully developed a solution based on GPT-4. This innovative solution automates the analysis of building operational data, thereby providing comprehensive support for building energy management.
"The study's first author, Chaobo Zhang, a postdoctoral researcher in smart buildings at the Department of the Built Environment, Eindhoven University of Technology, highlights the necessity for tailored data mining solutions in building energy management due to the highly diverse nature of building energy systems.
"While GPT-4 stands as one of the most advanced large language models currently available, demonstrating remarkable human-level performance in various real-world scenarios such as coding, writing, and image generation, its ability to analyze building operational data using data mining tools at a comparable human-level performance remains uncertain. Exploring the potential of leveraging GPT-4 to replace humans in data mining-based building energy management tasks holds significant value and warrants further investigation.” Zhang explains.
The team successfully showcased GPT-4's capability to generate codes that forecast building energy loads, even when provided with limited user information. Furthermore, GPT-4 exhibits the ability to identify device faults and detect abnormal patterns in system operations by analyzing building operational data. When applied in real-world buildings, the codes generated by GPT-4 demonstrate a high level of accuracy in energy load prediction.
“Additionally, GPT-4 offers reliable and precise explanations for fault diagnosis and anomaly detection outcomes. By automating coding and data analysis tasks, GPT-4 effectively liberates humans from tedious work, resulting in a more accessible and cost-effective approach to data-guided building energy management,” adds Zhang.
This study represents a breakthrough in the domain of building energy management. "Automated data mining solutions are still rare for building energy management until now. Our study indicates that GPT-4 is a promising solution to enabling computers to implement customized data mining solutions for building energy management with limited assistance from human,” says Yang Zhao, a professor at Zhejiang University, and senior author of the study. "We hope more scientists can explore the potential of GPT-4 in this domain, so that the building energy management will be smarter and more efficient in the future."
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Contact the author: Yang Zhao, Institute of Refrigeration and Cryogenics, Zhejiang University, Hangzhou, China, youngzhao@zju.edu.cn
The publisher KeAi was established by Elsevier and China Science Publishing & Media Ltd to unfold quality research globally. In 2013, our focus shifted to open access publishing. We now proudly publish more than 100 world-class, open access, English language journals, spanning all scientific disciplines. Many of these are titles we publish in partnership with prestigious societies and academic institutions, such as the National Natural Science Foundation of China (NSFC).
IMAGE: (A) ILLUSTRATION OF THE THREE CUP SNIFFING EXPERIMENT WITH THE FIRST AUTHOR’S GREAT PYRENEES (PHOTO CREDIT: TODD DICKEY). (B) ONE OF THE SECOND AUTHOR’S COVID-19 SCENT DOGS SNIFFING A TEST CANISTER (PHOTO CREDIT: HEATHER JUNQUEIRA). (C) FLOWCHART ILLUSTRATING HOW VOLATILE ORGANIC COMPOUNDS (VOCS) ARE SENSED AND PROCESSED BY DOGS AND ENOSES (FLOWCHART MODIFIED AFTER KARAKAYA ET AL., 2020, WITH PERMISSION).view more
CREDIT: PHOTO CREDITS: (A) TODD DICKEY, (B) HEATHER JUNQUEIRA, (C) FLOWCHART MODIFIED AFTER KARAKAYA ET AL. WITH PERMISSION (KARAKAYA, D, ULUCAN, O, TURKAN, M. ELECTRONIC NOSE AND ITS APPLICATIONS: A SURVEY. INT J AUTOM COMPUT 2020;17:179-209. HTTPS//DOI:10.1007/S11633-019-1212-9).
Scent dogs may represent a cheaper, faster and more effective way to detect COVID-19, and could be a key tool in future pandemics, a new review of recent research suggests. The review, published in De Gruyter’s Journal of Osteopathic Medicine, found that scent dogs are as effective, or even more effective, than conventional COVID-19 tests such as RT-PCR.
Dogs possess up to 300 million olfactory cells, compared to just 5 or 6 million in humans, and use one-third of their brains to process scent information, compared with just 5% for humans. Dogs trained to recognize specific volatile organic compounds created in the body during disease have successfully identified patients with certain cancers, Parkinson’s and diabetes.
Prof. Tommy Dickey of the University of California, Santa Barbara and Heather Junqueira of BioScent Detection Dogs reviewed 29 studies where dogs were used to detect COVID-19. The studies were performed using over 31,000 samples by over 400 scientists from more than 30 countries using 19 different dog breeds. In some studies, the scent dogs sniffed people directly, sometimes in public places as a health screening. In others, the dogs sniffed patient samples such as sweat, saliva or urine samples.
In the majority of studies, the scent dogs demonstrated similar or better sensitivity and specificity than the current gold-standard RT-PCR tests or antigen tests. In one study, four of the dogs could detect the equivalent of less than 2.6 x 10−12 copies of viral RNA per milliliter. This is equivalent to detecting one drop of any odorous substance dissolved in ten and a half Olympic-sized swimming pools and is three orders of magnitude better than modern scientific instruments.
The dogs could detect COVID-19 in symptomatic, pre-symptomatic and asymptomatic patients, along with new COVID variants and even long COVID. A major benefit of using the dogs was their speed – they could provide a result in seconds to minutes, and did not require expensive lab equipment or create mountains of plastic waste, unlike conventional diagnostic approaches.
“Although many people have heard about the exceptional abilities of dogs to help humans, their value to the medical field has been considered fascinating, but not ready for real-world medical use,” said Prof. Dickey. “Having conducted this review, we believe that scent dogs deserve their place as a serious diagnostic methodology that could be particularly useful during pandemics, potentially as part of rapid health screenings in public spaces. We are confident that scent dogs will be useful in detecting a wide variety of diseases in the future."
Prof. Dickey and Heather Junqueira added that they feel that the impressive international COVID scent dog research described in their paper, perhaps for the first time, demonstrates that medical scent dogs are ready for mainstream medical applications.
IMAGE: BKH IS A ONE-STOP PORTAL THAT ALLOWS USERS TO ACCESS FAIR AND INTERLINKED BIODIVERSITY DATA AND SERVICES IN A FEW CLICKS. VISIT AT: HTTPS://BIODIVERSITYKNOWLEDGEHUB.EU/.view more
BKH is a one-stop portal that allows users to access FAIR and interlinked biodiversity data and services in a few clicks. BKH was designed to support a new emerging community of users over time and across the entire biodiversity research cycle providing its services to anybody, anywhere and anytime.
“The Knowledge Hub is the main product from our BiCIKL consortium, and we are delighted with the result! BKH can easily be seen as the beginning of the major shift in the way we search interlinked biodiversity information,”
says Prof. Lyubomir Penev, BiCIKL’s Project coordinator and Founder of Pensoft Publishers.
“Biodiversity researchers, research infrastructures and publishers interested in fields ranging from taxonomy to ecology and bioinformatics can now freely use BKH as a compass to navigate the oceans of biodiversity data. BKH will do the linkages.”
“We have invested our best energies and resources in the development of BKH and the Fair Data Place (FDP), which is the beating heart of the portal,”
says Christos Arvanitidis, CEO of LifeWatch ERIC - “BKH has been designed to support a new emerging community of users across the entire biodiversity research cycle. Its purpose goes beyond the BiCIKL project itself: we are thrilled to say that BKH is meant to stay, aiming to reshape the way biodiversity knowledge is accessed and used.”
With its services, the Biodiversity Knowledge Hub is designed to support a new emerging community of users over time and across the entire biodiversity research cycle.
CREDIT
BiCIKL Project.
“The BKH outlines how users can navigate and access the linked data, tools and services of the infrastructures cooperating in BiCIKL,”
said Joe Miller, Executive Secretary of GBIF—the Global Biodiversity Information Facility.
“By revealing how they harvest, liberate and reuse data, these increasingly integrated sources enable researchers in the natural sciences to move more seamlessly between specimens and material samples, genomic and metagenomic data, scientific literature, and taxonomic names and units.”
