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In making tough decisions, plants weigh the risks

A study found that pea plants choose to grow more roots in a pot with variable nutrient levels when the average level is low, accepting more risk. This decision-making ability allows them to adapt and respond to their environment much like humans or other animals.

SourceCell Press·JournalCurrent Biology·DateJun 30, 2016

Could ancient wheat be the future of food?

Researchers argue that ancient grains like einkorn, emmer, and spelt can be reintroduced to modern markets by creating 'farm to fork' supply chains. These varieties offer unique nutritional profiles and taste experiences, making them attractive to consumers seeking healthier ingredients.

SourceCell Press·JournalTrends in Plant Science·DateJun 27, 2016

A 'Fitbit' for plants?

A new tool called Phenocart captures essential plant health data, allowing for faster measurements and larger experiments. The portable device uses a repurposed bicycle wheel and handles to collect data on growth rate, color, and other vital signs.

SourceAmerican Society of Agronomy·JournalCrop Science·DateJun 22, 2016

Improving poor soil with burned up biomass

Adding torrefied biomass to poor soil from Botswana increased water retention and promoted plant growth. The treated soil showed higher levels of potassium, phosphorus, and sulfur, as well as thicker stems, longer roots, and heavier plants.

SourceRIKEN·JournalScientific Reports·DateJun 17, 2016

Plants are 'biting' back

Researchers from Bonn University discovered calcium phosphate as a structural biomineral in rock nettle plants, providing them with a hardened defense mechanism against herbivores. The unique material, structurally similar to reinforced concrete, is used instead of silica or calcium carbonate in most plants.

SourceUniversity of Bonn·JournalScientific Reports·DateMay 19, 2016

Biofeedback system designed to control photosynthetic lighting

A biofeedback system has been developed to control photosynthetic lighting in controlled environment agriculture, allowing for efficient use of light by plants. The system successfully adjusted light levels based on the physiological performance of plants, achieving a wide range of energy conversion rates and reducing energy costs.

SourceAmerican Society for Horticultural Science·JournalJournal of the American Society for Horticultural Science·DateMay 9, 2016

Mechanism behind plant withering clarified

Researchers have reproduced the reaction behind plant withering, revealing a mechanism involving reactive oxygen species during photosynthesis. This discovery could help ensure stable food supplies by cultivating plants resistant to global warming.

SourceKobe University·JournalPLANT PHYSIOLOGY·DateApr 21, 2016

Plants force fungal partners to behave fairly

In a groundbreaking study, researchers found that plants deliberately choose which fungal partners to provide with more nutrients, effectively forcing the less cooperative partner to supply more phosphates. This market-based process allows for optimal resource allocation and increased plant productivity.

SourceUniversity of Zurich·JournalEcology Letters·DateApr 14, 2016

Yellow as the sunrise

Researchers from the University of Vienna have successfully characterised aurone synthase, a catechol oxidase with hydroxylase activity. The study provides insights into the mechanism of plant polyphenol oxidases and has potential applications in biotechnology, pharmaceuticals, and agriculture.

SourceUniversity of Vienna·JournalProceedings of the National Academy of Sciences·DateMar 21, 2016

Threatened plant gets boost from biotech lab

Researchers at Boyce Thompson Institute developed a tissue culture procedure to propagate the rare and threatened woodland agrimony, multiplying its numbers by 1013. The study aimed to understand why this species is in decline, with results suggesting grazing deer as an important factor.

SourceBoyce Thompson Institute·JournalNative Plants Journal·DateMar 16, 2016

Asparagus freezing tolerance related to rhizome traits

Researchers found that asparagus rhizome traits, specifically water content and metabolite levels, are key indicators of freezing tolerance. The study tested three cultivars, with Guelph Millennium proving to be the most tolerant, suggesting that adapting to colder climates may depend on optimizing rhizome characteristics.

SourceAmerican Society for Horticultural Science·JournalJournal of the American Society for Horticultural Science·DateMar 8, 2016

Breeding wildness back into our fruit and veg

Wild tomato varieties exhibit dual resistance against whiteflies, which damages plants by extracting sap, creating honeydew, and transmitting viruses. Breeding these traits into commercial tomatoes could offer a sustainable solution for controlling the pest.

SourceNewcastle University·JournalAgronomy for Sustainable Development·DateFeb 9, 2016

Smithsonian botanist discovers new ground-flowering plant in Panama

The discovery of Calathea galdamesiana highlights the importance of botanical research and conservation efforts in Panama. The new species is distinguished by its unique leaf shape and ground-dwelling inflorescences, and was discovered during a biological diversity inventory organized by the Panamanian Ministry of the Environment.

SourceSmithsonian Tropical Research Institute·JournalJournal of the Botanical Research Institute of Texas·DateJan 21, 2016

Ancient going on nouveau

Researchers have evaluated the potential of ancient grains in modern agriculture, finding that they require reduced fertilization to prevent lodging. While they contain high amounts of protein, the quality is lower than in modern crops. However, these grains can enrich biodiversity and offer premium products through traditional methods.

SourceAmerican Society of Agronomy·JournalCrop Science·DateJan 13, 2016

Fossils reveal ancient shrublands in fiery landscape

New fossil evidence reveals that Australia's fire-prone shrubland open vegetation originated at least 70 million years ago. This finding rejects the previous notion that rainforests covered Australia until 40 million years ago and instead suggests that native vegetation types evolved under the influence of fires on a drying continent.

SourceUniversity of Adelaide·JournalAmerican Journal of Botany·DateDec 9, 2015

No more brown apples?

Plant tyrosinase enzyme, responsible for browning of apples and other fruits, has been structurally elucidated by researchers at the University of Vienna. The discovery reveals new insights into the enzyme's function and opens up potential avenues for controlling browning reactions.

SourceUniversity of Vienna·JournalAngewandte Chemie·DateNov 11, 2015

Spring to come 3 weeks earlier to the United States

Scientists project a median 3-week shift in spring plant growth onset due to global warming, with significant impacts on animal migration and ecosystems. The study's findings have long-term implications for the growing season of plants and their relationships with animals.

SourceIOP Publishing·JournalEnvironmental Research Letters·DateOct 13, 2015

Threat posed by 'pollen thief' bees uncovered

A new University of Stirling study has uncovered the secrets of 'pollen thief' bees, which take pollen from flowers without providing pollination services. The research found that these smaller bees often stay longer at each flower and visit fewer flowers in each run, contributing little to seed production.

SourceUniversity of Stirling·JournalArthropod-Plant Interactions·DateOct 9, 2015

Novel competitors affect species' responses to climate change

A new study reveals that competition from previously unknown plant species at lower elevations can be decisive for alpine plants in warmer climates. This finding challenges the assumption that higher temperatures are the primary effect of climate change on alpine species, instead highlighting the importance of competition.

SourceETH Zurich·JournalNature·DateSep 16, 2015

Understanding nature's most striking colors

Plant cellulose can self-assemble into wrinkled surfaces that produce striking optical effects, such as iridescence and color changes. The researchers found that the twisting structure of cellulose creates a pattern of parallel ridges that split light into its colored components, producing an iridescent sheen.

SourceAmerican Institute of Physics·JournalThe Journal of Chemical Physics·DateSep 15, 2015