A new study published in Nature shows that ocean acidification caused by carbon dioxide emissions will severely slow coral reef growth. The research team manipulated seawater chemistry to reflect end-of-century projections, finding that increased acidity hinders calcification and reef growth.
Researchers discovered xenon compounds with nickel and iron at extreme pressures and temperatures, which could explain the missing noble gas in Earth's atmosphere. The study provides evidence for previously theorized compounds of iron and xenon under core conditions.
Analysis of Réunion volcanic rocks indicates that their source material originates from isolated regions of the mantle with distinct chemistry. The discovery provides a unique fingerprint for the age and history of these ancient mantle pockets.
Brown dwarfs, larger cousins of giant planets, undergo atmospheric changes as they age and cool. Astronomers measured the temperature at which this shift happens in young brown dwarfs, finding it occurs around 1,150 degrees kelvin for objects 150 million years old.
New research suggests the Moon may be wetter than initially thought, raising questions about its origin story and composition. Scientists have developed models to determine whether a wet Moon is compatible with a giant impact formation, finding that it's not an unlikely scenario.
The study found that wind and solar resources have natural variability, making it challenging to generate all electricity from these sources. Reliable electricity generation with 80% solar and wind requires a continent-scale transmission grid with at least 12 hours of storage.
A team of astronomers discovered a massive stellar flare from Proxima Centauri, which raises questions about the habitability of its exoplanetary neighbor, Proxima b. The flare, detected by ALMA, was 10 times brighter than our Sun's largest flares and could have sterilized the surface of Proxima b.
Roots face challenges in saline soils, but plant cells can sense damage and respond with strength-enhancing chemicals to prevent explosion.
Scientists from Carnegie Institution for Science have observed evidence of the long-theorized, difficult-to-see low-density liquid phase of water. The team used a rapid-decompression technique to create this phase, which only lasted for half a second at extremely cold temperatures.
Astronomers have discovered a trio of super-Earths around the star GJ 9827, with two of them having radii between 1.7 times and 2.5 times that of Earth, sparking debate about their composition. The study's findings provide insight into how these planets form and evolve, with implications for the search for life beyond our Solar System.
Researchers have successfully synthesized cubic, semiconducting titanium nitride (Ti3N4) with excellent mechanical and wear resistance properties. The material has a larger band gap than expected and is expected to exhibit improved optoelectronic properties, making it suitable for electronic devices.
A team of scientists has found evidence that the Earth's core and mantle separated in a disordered fashion, preserving unique isotopic signatures. The researchers believe that chemical behavior of iodine at high pressure played a crucial role in this process.
Scientists analyzed carbon-rich dust grains extracted from meteorites to determine the timing of supernova dust formation. The study found that these grains formed at least two years after their massive parent stars exploded.
A team of astronomers discovered the most-distant supermassive black hole ever observed, located in a luminous quasar and emitting light from 5% of its current age. The black hole has a mass 800 million times that of our Sun, posing a challenge to theories of supermassive black hole growth.
Researchers from Carnegie Institution for Science found that climate models projecting greater amounts of warming are more likely to align with current observations. The study suggests that models simulating reduced cloud cooling in the future tend to predict greater future warming.
A new study using remote sensing and satellite mapping has identified 40% of northern Malaysian Borneo's carbon stocks in unprotected forests. The Carnegie Airborne Observatory mapped carbon stocks, guiding conservation efforts and suggesting that doubling carbon stocks could be achieved by allowing previously logged forests to regener...
Researchers have found that zebrafish can survive despite mutations by using workarounds such as regulating expression of related genes or skipping errors in DNA transcription. This study provides guidelines for designing targeted mutations and accelerating the development of diagnostics and therapeutics for human diseases.
Researchers found that water in minerals can split up under extreme pressure, liberating oxygen to combine with iron and create a novel mineral. This discovery could have implications for the Earth's geologic history and potentially explain the Great Oxygenation Event.
Reservoirs of oxygen-rich iron between the Earth's core and mantle may have played a major role in shaping our planet's history. The discovery suggests that massive iron dioxide rocks could be generated annually above the core, releasing oxygen into the atmosphere, potentially triggering the Great Oxygenation Event.
An international team of astronomers, including Carnegie's Nick Konidaris, discovered a 'zombie star' that exploded multiple times over 50 years. The finding challenges existing knowledge of a star's end of life and was made possible by Konidaris' instrument-construction, which helped analyze the phenomenon.
The team used the Swope telescope to discover the light produced by the merger and obtained the earliest spectra of the collision. These observations may allow scientists to explain how many of the universe's heavy elements were created.
New research from Carnegie Institution for Science suggests that North Atlantic wind farms can generate at least three times more power than onshore wind farms, tapping into winds throughout the atmosphere. However, this tremendous wind power is seasonal and primarily available during winter months.
A new study suggests that drought recovery times will increase due to climate change, potentially leading to widespread tree deaths and ecosystem disruption. The factors contributing to this increase include temperature extremes, precipitation, and carbon dioxide concentrations.
Increased precipitation from climate change will substantially overload U.S. waterways with excess nitrogen, leading to eutrophication and harmful algal blooms. The Midwest and Northeast are expected to be particularly affected, with a one-fifth increase in nutrient pollution by the end of the century.
Researchers used models to simulate the effectiveness of a combined set of geoengineering tools in reducing warming and precipitation changes. The study found that deploying both methods in concert could decrease global warming to pre-industrial levels, but with substantial regional variations in rainfall.
Researchers found that orangutans prefer areas with strong branches to move laterally through the forest canopy, explaining their preference for enclosed canopy. The study's findings contribute to a larger Bornean biodiversity mapping mission and inform conservation efforts in human-impacted forests.
The sequencing of Porphyra's genome revealed minimal structural elements in its cellular cytoskeletons, allowing it to thrive in extreme environments. The analysis also uncovered genes for UV protection and compounds that enable the organism to withstand desiccation.
Research reveals that the left habenula is crucial for rapid recovery from fear-induced immobilization in zebrafish larvae. The study also sheds light on the development and function of the habenular region in regulating fear responses, anxiety, and mood.
Scientists have long known algae are crucial to human life and ecology, but a new review reveals they hold secrets to biofuels, therapeutic compounds, and climate change resilience. Advances in molecular techniques are unlocking major genetic processes shaping algal evolution.
Experts conclude that a near-zero-emissions energy system will require a diverse portfolio of energy technologies, including bioenergy, nuclear energy, and carbon capture technology. The study corrects previous research suggesting the US can be powered solely by solar, wind, and hydroelectric energy.
Researchers created a new form of ultrastrong, lightweight carbon by pressurizing and heating glassy carbon to extreme temperatures. This material has unique properties that make it suitable for various applications, including aerospace engineering and military armor.
Researchers at Carnegie Institution identified KIB1 as a crucial component of the brassinosteroid signaling chain, essential for maximizing plant growth and survival. The discovery sheds light on the complex system of hormones guiding plant development and could lead to engineering high-yield crops.
A team of astronomers discovered a new kind of galaxy that formed less than a billion years after the Big Bang, creating stars more than 100 times faster than our Milky Way. This find solves a long-standing puzzle of how massive galaxies came to have hundreds of billions of stars when they formed so quickly.
Researchers used satellite data to estimate historical algal blooms in Lake Erie, doubling the available years of data. Decadal-scale cumulative phosphorus loading helps predict bloom size, suggesting a possible decade-long benefit from recent nutrient reductions.
A team of researchers discovered that SIMP J013656.5+093347 is a planetary mass object, rather than a brown dwarf, due to its mass being at the boundary between brown dwarf-like and planet-like properties. This finding offers new insights into the atmospheres of gas giant exoplanets.
Researchers at Carnegie Institution develop a method to visualize and measure lipids in real-time as they are metabolized by living fish. This breakthrough allows for a better understanding of cellular functions and the role of lipids in health problems such as cardiovascular disease and diabetes.
A team of scientists has discovered a rare sample of the mineral majorite, which originated at least 235 miles below Earth's surface. The discovery provides valuable insights into the dynamic processes occurring deep inside the Earth and its history, including the formation of mountain ranges that persist today.
New research confirms that global photosynthesis is stable for hundreds of years before industrial revolution, but grows rapidly with increased CO2 levels. The findings affirm estimates used in climate change models and suggest that nature's brakes are not enough to counter human emissions.
Researchers at Carnegie Institution have synthesized pure samples of Si-III, a semiconductor with an extremely narrow band gap, narrower than diamond-like silicon crystals. This discovery may lead to unpredictable technological breakthroughs in fields like solar energy and electronics.
Scientists studied the effect of noble gas argon on pressurized hydrogen and found that it did not ease the transition to a metallic state. The team brought argon-doped hydrogen up to extreme pressures, but observed no structural changes, indicating that argon is not the ideal facilitator for metallic hydrogen.
Grasses have evolved unique stomata with four-cell configurations that enable better CO2 uptake and water conservation. The research found a key gene, BdMUTE, that enables this improved function, which could help crops thrive in warmer and dryer climates.
Scientists have found evidence of Earth's first example of recycling, where its own crust was reworked and reused over 4 billion years ago. The discovery uses neodymium isotope analysis to study variations in the element's abundance, indicating that ancient rocks were compositionally similar to younger basaltic oceanic crust.
Astronomers studied the HD 106906 system to see how a distant giant planet affects a debris disk's shape and structure. They found that the disk's flat, non-circular ring is consistent with a planet forming outside the disk, not inside it.
Scientists have discovered a phenomenon where solid metal bismuth retains structural motifs from its liquid predecessor, even when cooled back to solid. This effect, known as 'structural memory', is correlated with changes in magnetic properties and has potential applications in electrical engineering.
Alan Dressler, chair of the AURA Hubble Space Telescope (HST) and Beyond Committee, received the 2017 Carl Sagan Memorial Award for his leadership in research and policies advancing exploration of the Cosmos. The award recognizes the committee's influential report that led to the development of NASA's James Webb Space Telescope.
Researchers found the average temperature of Earth's mantle beneath ocean basins is about 60 degrees Celsius higher than previously thought, thanks to water in deep minerals. This discovery may change our understanding of tectonic plate movements and mantle viscosity.
A team of scientists led by Jonathan Gagné has found evidence of undetected giant exoplanets in the TW Hya star association, approximately 100 light years from Earth. The researchers used an initial mass function to calculate the distribution of mass in the group and predict the number of undiscovered objects.
Researchers suggest an unseen population of gas giant planets may exist at distances similar to Jupiter and Saturn, resolving a long-standing debate about their formation. The predicted planets could be found using NASA's Wide Field Infrared Survey Telescope.
Scientists studied iron isotope ratios to understand Earth's differentiation event and how it differed from other planets. Nickel played a key role in shaping the ratios, with different elements forming under various planetary formation conditions.
The international team released a large dataset of exoplanet-detecting observations using the radial velocity method, identifying over 100 potential planets, including one orbiting the fourth-closest star to our Solar System. The data will enable astronomers around the globe to search for new planets and follow up on existing signals.