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Carnegie Institution for Science


How pathogens hijack host plants

Researchers discovered a novel family of pores that transport sugar out of plant cells, enabling pathogenic bacteria and fungi to hijack the nutrient supply. This breakthrough allows for the development of new crop protection techniques and potential applications in diabetes research.

Mastermind steroid found in plants

Researchers have identified about a thousand brassinosteroid target genes, revealing molecular links between the steroid and various cellular functions. The study provides the first comprehensive action map for a plant hormone, accelerating basic plant science and crop research.

SourceCarnegie Institution for Science·JournalDevelopmental Cell·DateNov 15, 2010

Breakthrough in nanocrystals growth

Researchers at Carnegie Institution for Science have successfully watched nanoparticles grow from the earliest stages of formation using high-energy X-rays. This breakthrough allows for the development of new techniques to control growth conditions, paving the way for improved solar-cell technology and chemical sensors.

SourceCarnegie Institution for Science·JournalNano Letters·DateOct 18, 2010

Ancient Colorado river flowed backwards

Researchers have found evidence of a 55-million-year-old river that flowed from California to Arizona and then into Utah, reversing the modern Colorado River's direction. The ancient California River, which formed a delta in Utah, was on a similar scale to the modern Colorado-Green River system but flowed northeastward.

Optimizing climate change reduction

Researchers developed a new approach to determining the optimal distribution of sulfates in the stratosphere to achieve defined climate goals. The study found that uniformly distributed aerosols can minimize both temperature changes and hydrological cycle alterations, with potential reductions of up to 90% and two-thirds, respectively.

SourceCarnegie Institution for Science·JournalEnvironmental Research Letters·DateSep 16, 2010

Carbon mapping breakthrough

Researchers created high-resolution maps of carbon storage and emissions in the Peruvian Amazon, revealing patterns that differ among forest types and geology. The study's findings could inform the United Nations' REDD initiative and provide financial incentives to reduce deforestation and degradation.

SourceCarnegie Institution for Science·JournalProceedings of the National Academy of Sciences·DateSep 6, 2010

Scientists find moon whiskers

Researchers at the Carnegie Institution's Geophysical Laboratory detected and dated Moon carbon in the form of graphite, which survived from the late heavy bombardment era 3.8 billion years ago. The discovery provides a record of the meteoritic carbon input to the Earth-Moon system when life was emerging on Earth.

Moon whets appetite for water

Scientists have found a much higher water content in the Moon's interior, with concentrations ranging from 64 parts per billion to 5 parts per million. The research suggests that water was preserved from the hot magma present when the Moon formed 4.5 billion years ago.

SourceCarnegie Institution for Science·JournalProceedings of the National Academy of Sciences·DateJun 14, 2010

High yield crops keep carbon emissions low

A new report found that high-yield crop varieties developed during the Green Revolution have helped keep greenhouse gas emissions at bay, avoiding nearly 600 billion tons of CO2. The study estimated that agricultural research has averted carbon dioxide emissions at a cost of about $4 per ton of CO2.

SourceCarnegie Institution for Science·JournalProceedings of the National Academy of Sciences·DateJun 14, 2010

CO2 effects on plants increases global warming

A new study by Carnegie Institution researchers found that CO2's direct effect on plants contributes to global warming, with evapotranspiration effects accounting for 16% of land surface warming globally. High carbon dioxide levels can lead to increased runoff and stronger climate predictions require considering plant responses.

SourceCarnegie Institution for Science·JournalProceedings of the National Academy of Sciences·DateMay 3, 2010

Metallic glass yields secrets under pressure

Scientists at Carnegie Institution used high-pressure techniques to study the connection between density and electronic structure of a cerium-aluminum metallic glass, opening up new possibilities for developing metallic glasses. The research found that high pressure causes changes in properties such as volume or electronic behavior, re...

SourceCarnegie Institution for Science·JournalPhysical Review Letters·DateMar 16, 2010

Gene function discovery: Guilt by association

Researchers created AraNet, a network that connects over 19,600 plant genes based on physical neighborhood and co-expression patterns. The network accurately predicted the functions of three uncharacterized genes in Arabidopsis thaliana, demonstrating its potential to revolutionize fundamental plant biology and agricultural research.

SourceCarnegie Institution for Science·JournalNature Biotechnology·DateJan 31, 2010

Superconducting hydrogen?

Scientists have modeled three hydrogen-dense metal alloys and found that superconductivity can be induced by high pressure, with transition temperatures as low as -423°F. The study suggests that the superconducting state comes from electron interaction with vibrational energy through the lattice.

SourceCarnegie Institution for Science·JournalProceedings of the National Academy of Sciences·DateJan 25, 2010

Antagonistic genes control rice growth

Researchers found that a plant steroid controls the balance between two genes in rice, regulating leaf angle and cell growth. The discovery has important implications for understanding how to manipulate crop growth and yield, and could lead to better engineering of crops to feed a growing population.

SourceCarnegie Institution for Science·JournalThe Plant Cell·DateDec 15, 2009

New hydrogen-storage method discovered

Researchers at Carnegie Institution create unique hydrogen-storage material by combining xenon with molecular hydrogen under pressure, offering a new family of materials to boost hydrogen technologies. The discovery reveals unusual bonding chemistry and potential applications in synthesizing energetic materials.

SourceCarnegie Institution for Science·JournalNature Chemistry·DateNov 22, 2009