Articles tagged with Plant Stresses
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The PpeDAM6 gene plays a crucial role in regulating plant bud dormancy, responding to environmental conditions and hormonal signals. The study reveals the interaction between PpeBPCs and PpeDAM6, highlighting the importance of epigenetic regulation in modulating cell growth and tolerance to abiotic stresses.
Researchers found that seed microorganisms have more staying power than soil microorganisms when colonizing plants. The study suggests that modifying the seed microbiome could lead to more sustainable agriculture and increased crop yields and quality.
Current climate models underestimate species extinction rates by neglecting the complexities of ecosystems. Researchers used piñon pine data to model how climate affects tree populations and distribution, finding indirect effects that cannot be captured by climate-only models.
Researchers discovered that strigolactones enhance tomato heat and cold tolerance by inducing related genes, antioxidant metabolism, and ABA biosynthesis. This finding provides insight into the critical role of strigolactones in stress tolerance mechanisms.
Researchers created a single-cell map of corn's root, identifying key regulators of cellular diversity that help crops tolerate drought and flooding. The study found that the genetic regulator SHORT ROOT (SHR) plays a crucial role in expanding cortex tissue, leading to increased tolerance of climate stressors.
Scientists discovered that fungal endophytes convert chitin to chitosan, a natural plant defense activator, to evade host defense. This conversion enables the fungus to live in symbiotic association with grasses, protecting them from biotic and abiotic stresses.
Plants form cytoplasmic complexes called stress granules as a defense mechanism to promote cell survival. A recent study identified TSN protein as a crucial scaffolding protein that recruits plant-specific components, including SnRK1 kinase, to stress granules.
Researchers found that bacteria living inside plant roots trigger sulfur metabolism to produce antioxidants that detoxify the plant from salt-induced damage. This discovery could lead to breakthrough technologies for saline agriculture and improve food production in arid lands.
Researchers at Tel Aviv University discovered a central mechanism in plants that helps them deal with drought conditions and water shortages. They found that the ABA signal molecule is stored in inactive state in leaves and released under desired conditions, allowing plants to rapidly respond to changing environmental conditions.
Mangroves have evolved a remarkable resistance to stress in harsh ocean environments. Researchers decoded the genome of Bruguiera gymnorhiza and found that it regulates genes to cope with stress, using adaptive epigenetic changes to survive.
Salt stress alters legume responses to symbiotic rhizobacteria by modulating gene expression. Several genes with well-characterized functions in nodulation are highly induced under salt stress, making the plant hypersensitive to bacterial signals.
A new chemical discovered by a UC Riverside team helps dormant seeds germinate, increasing crop yields and food supply. The compound, Antabactin, blocks ABA hormone receptors, allowing seeds to sprout in response to environmental stressors.
A Cornell University study found no evidence that environmental stresses increase THC concentrations or CBD ratios in hemp. The research suggests genetics play a key role in determining THC content and CBD ratios.
Researchers at MIT have developed a simple and inexpensive two-layer coating that protects seeds from drying out and provides them with extra nutrition, enabling agriculture on marginal arid lands. The coating, which is engineered to hold onto moisture and contain preserved microorganisms, has shown encouraging results in early tests.
Researchers from North Carolina State University have developed a wearable sensor that monitors plant stress and disease in a noninvasive way by measuring volatile organic compounds (VOCs) emitted by plants. The system can alert users to specific problems, allowing growers to identify issues quickly and limit the spread of diseases.
Researchers at UMaine used imaging spectroscopy to predict water stress in wild blueberry barrens, estimating chlorophyll levels and validating results with ground samples. The technology helps inform growers on irrigation routines and manage water resources sustainably.
Researchers from Nara Institute of Science and Technology discovered that plants can gain heat tolerance through an epigenetic memory mechanism involving JUMONJI proteins. This mechanism allows plants to adapt to future heat stress by 'remembering' how to deal with heat shock genes.
Researchers investigated plant competition under dual stressors of extreme drought and invasive species, finding dynamic interactions that amplify or buffer each other. Cork oak trees surprisingly recover better than expected after extreme drought when the invasive gum rockrose is also affected.
Researchers found a correlation between heat stress, sun-induced fluorescence, and grain quality, affecting soybean crop yield. The technique may help identify more heat-resistant crops and aid farmers in selecting suitable crops for the U.S. Corn Belt.
A new guide for communicating plant science aims to bridge the gap between scientists and non-scientists, promoting diversity and inclusion. The document, developed by 30 scientists over two years, provides strategies to effectively communicate plant research to various audiences, including educators and policymakers.
Higher temperatures can reduce photosynthesis efficiency and hinder plants' ability to regulate CO2 uptake and water loss. Plants with structural features that make them more or less susceptible to heat stress also influence how temperature affects crop yields.
Researchers at the University of Warwick have identified two argonaute-like proteins that protect plant fertility from stress, enabling plants to maintain male fertility and survival. This discovery is crucial for safeguarding future crop production under unpredictable climatic conditions.
Astronauts on long-duration missions face nutrient deficiencies from dehydrated food; Ying Diao's research uses wearable sensors to monitor plant stress and optimize growth conditions. The technology has potential applications beyond space exploration, including addressing climate change by helping plants adapt to changing environments.
Researchers have designed a portable device that can rapidly detect plant stress, including nitrogen deficiency, drought, heat, and light stress. The device uses a Raman leaf-clip sensor to probe the chemistry of leaves, allowing for early diagnosis and real-time monitoring of plant health.
A team of scientists discovered that membrane-attached protein IM30 forms a protective carpet on the surface of cell membranes under stress conditions. The protein's complex ring structure disassembles and unfolds into a protective shield, stabilizing membranes and preventing cell death.
Researchers at Penn State discovered that grafted plants with epigenetically modified rootstock exhibit increased vigor, productivity, and resilience compared to parental plants. The technique uses gene expression manipulation rather than genetic modification, sidestepping controversy surrounding GMOs.
Researchers from Iowa State University have discovered that two seemingly unrelated responses in corn plants work together to mitigate damage caused by heat stress. The unfolded protein response and heat shock response, which operate in different parts of plant cells, collaborate to protect the crop from stress.
The study reveals that chitin oligosaccharides trigger cytosolic calcium oscillations, which propagate across the whole plant and synchronize cell responses. This synchronized signal affects transcription of defense-related genes, allowing plants to mount a uniform defense response.
The 'Madsen' wheat cultivar exhibits excellent resistance to various diseases and stresses, contributing to its widespread success in the Pacific Northwest. Its impact has been felt globally, with researchers using it as a parent in breeding programs to protect wheat crops from numerous threats.
Scientists have successfully applied optogenetics to higher plants, using blue light to trigger electrical excitation and simulate plant stress responses. This allows for the non-invasive investigation of cellular communication pathways and the analysis of membrane potential waves.
Researchers identified a new gain-of-function mutation in the PHYTOALEXIN DEFICIENT4 (PAD4) gene, which enhances cell death during fungal infection and strengthens plant resistance to pathogens. The discovery sheds light on how plants control stress responses and provides insights into potential strategies for enhancing crop yields.
Researchers at Penn State discovered that manipulating a single gene can induce stress memory in plants, giving them increased vigor and productivity. This epigenetic technique allows for non-genetically modified crops with improved resilience.
Researchers embed carbon nanotube sensors in plant leaves to detect hydrogen peroxide signaling waves, allowing for real-time tracking of plant stress responses. The new approach enables comparison across different plant species, providing insights into how plants counteract damage and respond to various types of stress.
Researchers have discovered a previously unknown signaling pathway that protects chloroplasts from damage caused by intense sunlight. This pathway, involving the protein SAFE1, suppresses light-induced programmed cell death and promotes stress tolerance in plants.
The study reveals that even modest climate warming scenarios can lead to a significant loss of groundwater in the continental US, with the eastern region being more sensitive. As shallow groundwater storage is depleted, it can no longer buffer plant water stress, leading to dramatic changes in vegetation and surface waters.
Researchers at Washington State University found that arbuscular mycorrhizal fungi provide added benefits during crises, enhancing water uptake and nutrient acquisition in plants. The study suggests that focusing on fungi can help sustainably grow crops under stressful conditions.
A study published in the American Society for Horticultural Science journal HortTechnology found that simply gazing at an indoor plant can reduce psychological stress in office workers. The researchers discovered that even passive involvement with plants, such as having a plant on their desk, contributed to significant anxiety reduction.
The wild relatives of chile peppers, pumpkins, carrots, and lettuce are imperiled, with many species not well-represented in gene banks or protected areas. These plants possess genes that can help their cultivated cousins withstand harsh climate conditions.
An international research team investigated how evolutionary changes in receptor proteins led to the development of sensing mechanisms that aid plant stress responses. They found that the closest living algae relatives of land plants have a complete set of genes that strongly resemble the genetic framework used by land plants.
Researchers have discovered a protein that triggers a defense mechanism in plant cells when exposed to excessive light, protecting them from damage. This finding has implications for agriculture, as it could help crops withstand harsh climate conditions and increase the production of proteins used in vaccines.
Researchers developed a method to track the activity of phosphatidic acid spatially and temporally using a fluorescence resonance energy transfer-based biosensor. The study found that phosphatidic acid plays a key role in plant stress tolerance, particularly under salt stress conditions.
Researchers discovered that stressed plants control iron levels within cells, adapting to scarcity rather than redistribution. This finding highlights the importance of 'external borders' in cellular response strategies.
A UCI-led study analyzes global water usage trends from 1980 to 2016, identifying hot spots of stress and opportunities for conservation. The researchers propose strategies to build resilience in the face of climate change, including dry cooling technologies and improved management practices.
Researchers have discovered a connection between two signalling systems that help plants survive stress situations, enabling them to remember and adapt to dangerous conditions. This breakthrough may lead to new bioengineering technologies to overcome crop growth retardation and development anomalies in stress-resistant crops.
Researchers from Far Eastern Federal University suggest developing a 'bioengineering memory' in plants to improve stress resistance. They propose adjusting SWI/SNF chromatin-remodeling proteins and signaling subsystems using advanced genomic editing technologies like CRISPR-Cas9.
Research at UTSA finds that stressed plants can release compounds to defend against herbivores, halting growth but allowing recovery after threats subside. This adaptation enables plants to invest metabolic energy in growth again.
Researchers found that plants prioritize protection against physical stresses over biological ones depending on leaf age, with older leaves more sensitive to pathogen attacks and younger leaves protected under abiotic stress.
Researchers solve decades-long mystery of red pigments in corn by discovering a new gene, Ufo1, which controls the expression of a pigment pathway. The study's findings have significant implications for plant breeding, biofuel production, and crop protection from pests.
Researchers at Stockholm University found a special gene PLD that helps plants stay healthy and resistant to oxygen deficiency when underwater. The study suggests that increasing the amount of this gene may help protect crops from flooding, improving harvest yields.
Researchers developed a cost-effective method to monitor indoor crop health using SI-NDVI imaging, detecting stress signatures before visible signs appear. This technique has potential applications in space-based farming and can be used by indoor farmers to catch problems quickly.
A team of scientists at RIKEN Center for Sustainable Resource Science in Japan has discovered a gene regulator called NGA1 that allows plants to rehydrate after drought. The study found that NGA1 controls the transcription of a key gene NCED3, ultimately enabling plants to survive dehydration stress.
Researchers identified NGA1, a transcription factor in Arabidopsis thaliana, as a key player in early drought stress response by activating the NCED3 gene and promoting abscisic acid (ABA) biosynthesis. This finding suggests that ABA accumulation is essential for plant protection against dehydration.
A team of Penn State researchers found that hot temperatures lead to changes in plant RNA structure, linked to a loss in messenger RNAs. This process may help plants cope with heat stress and drought conditions, offering insights into developing more resilient crops.
Researchers found that inoculation of rice plants with Brevibacterium linens RS16 improved photosynthetic traits and reduced volatile emissions in response to salt stress. This non-invasive approach enhances plant salinity tolerance, offering a potential solution for crop productivity under saline conditions.
The study found that the effectiveness of PRI use depends on the distribution of photosynthetic parameters among plants. Low levels of stress and varying stress levels in the study group showed higher effectiveness. Optimal conditions for measuring PRI, such as artificial lighting, reduced the significance of parameter distribution.
Researchers at RIKEN have discovered a hormone-like peptide in plants that increases their resistance to excessive salt. The peptide, AT13, enhances salinity stress tolerance and can be applied as a natural supplement for crops growing in high-salt conditions.
A team of scientists discovered a gene that helps rice plants grow in salty soil. The gene, STRK1, increases the plant's tolerance to salt stress by reducing reactive oxygen species.
Researchers at Tohoku University discovered that plants activate autophagy in leaf cells to derive essential amino acids during periods of low sunlight. This process allows plants to survive and grow under conditions of energy scarcity, enabling them to adapt to environmental challenges.
A new method has been proposed to stress test materials subjected to harsh conditions, offering a faster and more accurate alternative to existing methods. Laser-accelerated proton beams can reproduce damage equivalent to several months of full operation of facilities producing a harsh environment for materials.
A team of researchers has discovered that plants' daily cycle of heat resistance is triggered by light exposure and involves chloroplast signalling. This finding could lead to the development of crops that can withstand increasingly hot temperatures and more frequent heatwaves under climate change.