Articles tagged with Plant Cells
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Researchers have developed a 3D tissue scaffold for plants, enabling the observation of individual plant cells in a natural environment. The study reveals complex cell behavior, including cells clinging to and spiraling around their supports like vines.
Researchers aim to understand how plants cope with stress at the molecular level, focusing on the regulatory protein GSNOR and its role in nitric oxide regulation. The study has potential to uncover plant adaptation mechanisms and inform efforts to improve plant fertility.
Researchers found that carnivorous pitcher plants rely on special structures to reflect bats' ultrasonic calls back to them, making it easier for bats to find their plant partners. The bats respond better to these sounds and choose the plants as the best places to roost.
Researchers at the University of Washington have engineered yeast cells to communicate with each other using auxin, a plant hormone that can induce specific genes to be expressed. This breakthrough could lead to the development of synthetic stem cells and artificial organs that require different types of cells to work together.
Researchers discovered a mechanism that allows plant cells to balance opposing signals from Stomagen and EPF2, competing for access to the same surface proteins. This finding sheds light on how plants coordinate cellular structures and make decisions on stomata placement.
A recent study reveals that a regulatory gene called NAC016 plays a crucial role in turning off drought-response pathways in plants. This discovery offers new insights into how to develop drought-tolerant crop plants through conventional breeding or biotechnological approaches.
Researchers at the University of Freiburg have identified a key signal molecule involved in controlling plant stem cell activity. The discovery sheds light on how plants regulate stem cell growth in response to environmental signals.
Researchers have discovered that telomeres are essential for the renewal of plant stem cells and growth. The study uses innovative technology to measure telomeres at the cellular level in plants, revealing a vital relationship between telomere length, stem cells, and longevity. This breakthrough has implications for developing novel th...
Researchers developed an optical sectioning–3D reconstruction method using compound fluorescence light microscopes to image plant cells without damaging them. This approach allows for bulk processing of samples, clear imaging months after collection, and higher resolution than SEM.
Researchers discovered a mechanism by which plants regulate their vitamin C levels in response to environmental factors. This finding may help improve plant breeding programs and prevent iron deficiency anaemia worldwide.
Researchers have identified a chemical compound that prevents plants from taking up cesium, reducing the harmful effects of radiation-contaminated soil. The compound, CsTolen A, selectively binds to cesium, preventing its entry into plant cells and promoting physiological processes.
Researchers identified a positive feedback loop between genes and proteins that regulates floral abscission, allowing plants to shed petals. The study, supported by the National Science Foundation, provides new insights into plant development and responses to environmental cues.
Researchers at the Donald Danforth Plant Science Center used the world's largest single-celled organism, Caulerpa taxifolia, to investigate the nature of structure and form in plants. They found that different parts of the cell show distinctly different RNA patterns, which are also shared with land plants.
Researchers discovered a way to determine tree density, vegetation structure, and leaf arrangement in ancient plant fossils, providing insight into how ecosystems have changed over millions of years. This new method allows for quantification of vegetation openness and sheds light on the impact of climate change on Earth's ecosystems.
Researchers develop method to analyze cell patterns in fossilized plants, revealing changes in tree cover and density over time. This discovery sheds light on how the Earth's ecosystems changed and can help forecast future climate scenarios.
Researchers screened over 2,000 plant samples for biological activity, revealing compounds with potential applications for crop improvement and protection. The study presents the results of large-scale screening for insecticidal and fungicidal activity in 1,200 plant samples.
A team of researchers at Florida State University has made a groundbreaking discovery in the field of plant genetics, shedding light on how plants regulate their genetic material. The study found that certain regions of DNA are hypersensitive to enzymes, allowing scientists to identify new biochemical signatures and gain a better under...
Researchers have discovered that a previously known protein plays a crucial role in determining the form and function of plant cells by influencing their architecture. GCP-WD, a protein found in plants, is also essential for positioning microtubules and organizing cell skeletons.
Researchers found calcium involved in chemical signaling throughout the double fertilization process, guiding sperm release and fusion with the egg cell. This discovery sheds light on the complex process of flowering plant fertilization.
Researchers at the University of East Anglia have found that cells in plants, yeast, and animals continue to perform reactions thought to be responsible for life's origin four billion years ago. These reactions involve iron, sulfur, and electro-chemistry, essential for functions like respiration and photosynthesis.
Researchers discovered that Alaska wood frogs can survive colder temperatures for longer periods than previously thought due to higher glucose levels in their tissues. The frogs accumulate glucose through repeated freeze-thaw cycles, which helps protect them against cell damage.
A team of biologists at the University of Leicester has discovered a pair of proteins called DAZ1 and DAZ2 that are essential for making twin sperm cells in plants. The study reveals how these proteins work together with a 'master switch' protein DUO1 to control a gene network that ensures a pair of fertile sperm is produced.
Researchers identified a novel mechanism to reduce external signal strength in cells, akin to car brakes, allowing for rapid adaptation to changing conditions. This 'MAD' mechanism has broad implications for engineering crops and understanding cellular signaling.
Scientists at Brookhaven National Laboratory have found that certain desaturating fatty acid enzymes can link up to efficiently pass intermediate products from one enzyme to another. This process, known as metabolic channeling, enables the efficient production of useful plant products, such as healthful polyunsaturated fatty acids.
Researchers found that internal stress on microtubules guides cell-wall component deposition and influences cell shape. The unusual shape of pavement cells represents a balance between maintaining structural integrity and responding to mechanical stress.
Researchers at Carnegie Institution have developed a new method to measure abscisic acid levels in individual plant cells, shedding light on the hormone's role in plant stress responses. This breakthrough tool has the potential to improve crop yields and inform strategies for mitigating the impacts of drought and climate change.
Researchers have successfully elucidated the complete upstream segment of the terpenoid indole alkaloid biosynthesis pathway in tobacco plants, paving the way for cost-effective production of diverse therapeutic compounds. The technology developed can be utilized to produce other valuable plant-derived compounds.
Researchers at the University of Wisconsin-Madison discovered that calcium waves can transmit information in plant cells, allowing them to respond quickly to environmental stressors. The team found that these waves are involved in processing information and sending rapid signals to help plants adapt to changing conditions.
Researchers at VIB and Ghent University discovered a protein complex that regulates the transition from cell division to cell specialization in leaves. By extending the activity of this complex, more cells divide, resulting in larger leaves.
Multicellularity has evolved in at least 25 plant and animal lineages, with different developmental pathways and mechanisms. The critical point is that natural selection acts on functional traits, allowing for multiple evolutions of multicellular organisms via various cellular biology aspects.
Scientists discover novel proton-pumping pathway in plant cells that allows for hyperacidification of vacuoles, resulting in blue flower colors. This breakthrough could lead to new color varieties and applications in fruit and wine production.
Scientists at VIB and Ghent University identified a new protein, ERF115 transcription factor, which regulates quiescent center cells. This discovery explains why plants can live for hundreds of years while animals typically do not.
Plants with thinner roots show natural variation in cortical cell number, reducing energetic cost of soil exploration and increasing rooting depth. This trait could lead to improved seed production for agriculture, maintaining high yields in drought-prone regions.
Researchers at TUM discovered that auxin hormone plays a crucial role in plant growth towards light. By understanding the auxin transport mechanism, they were able to prove its involvement in phototropism for the first time. The study highlights the importance of auxin in regulating plant cell elongation and responding to light signals.
Living cells process information via signalling molecules and use negative feedback to reduce noise, with almost half of regulatory molecules regulating their own expression through biochemical reactions.
Researchers developed a microchip to study the mechanical challenges faced by pollen tubes as they navigate through female flower tissues. The study found that when the grip around the tube was too tight, it triggered the release of sperm cells, which is essential for fertilization and seed set.
A team of researchers from Cold Spring Harbor Laboratory explains for the first time the operation of a mechanism in plants that controls developmental regulatory genes, including homeobox genes like BREVIPEDICELLUS and KNAT2. In plant stem cells, a polycomb gene-repressing protein complex called PRC2 is recruited to specific sites alo...
Researchers investigate how plants sense gravity and respond to it, with a focus on genetics and the cytoskeleton's role in directing cell growth. Recent genetic studies reveal potential mechanisms for regulating actin and auxin distribution.
A study by Brown University biologists found that the PACMAD clade of grasses developed an anatomical predisposition to C4 photosynthesis due to evolutionary pressures. The clade's bundle sheath cells became larger, facilitating more efficient CO2 transfer when temperatures rise or plants become stressed.
Recent review reveals palm trees have living cells sustained throughout their lifetime, potentially holding the key to longevity and understanding cellular structure in plants. Palm trunks consist of individual cells living for centuries, unlike most long-lived trees with dead woody tissues.
A team of scientists has made a groundbreaking discovery about the role of brassinosteroid hormone in plant organ development, shedding light on how plants form their organs and boundaries. The research found that activation of the brassinosteroid pathway represses genes responsible for organ boundary formation, leading to fused organs.
Researchers at University of Cambridge discovered that conical cells on plant petals provide crucial grip for bees, increasing pollinator preference. The study reveals that these cells help bees land on flowers even in windy conditions.
Researchers from Japan and Karlsruhe have successfully used a synthetic photoreceptor to stimulate plant growth and development, regardless of exposure to light. This breakthrough could lead to improved agricultural practices and more efficient biomass production.
Scientists at Instituto Gulbenkian de Ciência have identified a new phosphate transporter in plant root cells that plays a crucial role in phosphorus uptake when Pi is scarce. The discovery provides insight into how phosphate transport systems can be manipulated to counteract stressful conditions and potentially improve crop yields.
Researchers have identified FANCM's crucial role in recombination during genetic inheritance. The gene ensures ordered distribution and recombination of genetic material in germ cells of thale cress, a model organism.
Biologists at Ruhr-University Bochum discovered novel functions of the metal-binding molecule nicotianamine, which regulates iron and zinc transport in plants. The research provides important clues for breeding crops with increased zinc content to prevent health problems caused by deficiencies.
Researchers found that carbon nanotubes significantly enhance plant cell division and growth by activating channels for water transport. The study demonstrates the potential to transform agricultural practices and improve industrial productivity.
Researchers at Michigan Technological University have created a method to disable small RNAs, which are crucial for our genetic makeup and can affect plant growth. By using this technique, scientists can study the function of any small RNA in cells.
Researchers developed Meta!Blast, a 3D video game that teaches cell biology to students. The game simulates a plant crisis and requires players to shrink to microscopic size to rescue lost scientists and save the world.
Researchers used laser capture microdissection to analyze individual root cells and discovered genes involved in arbuscular mycorrhizal (AM) symbiosis. The study found that even non-colonized cells are reprogrammed to prepare for fungal colonization, enabling plants to thrive in nutrient-depleted soil.
Scientists at Virginia Tech and Purdue University have identified a distinct transporter, NUP1, used by tobacco plant cells for nicotine metabolism. This discovery provides new insight into the production of medicinal alkaloid compounds and could enable bioengineering of medicinal plants to produce optimal amounts.
Researchers have identified a new protein called Constitutive Differential Growth1 (CDG1) that plays a crucial role in the brassinosteroid-activated pathway. CDG1 adds a phosphate to BSU1, leading to deactivation of BIN2 and promoting gene activity.
Researchers discovered a critical component in plant cell growth, revealing how microtubules are organized into scaffolds. The CLASP protein plays a key role, modulating geometric constraints and influencing cell division.
Researchers found that plants like Arabidopsis thaliana can speed up DNA duplication, leading to increased growth and seed production after being grazed. This process allows plants to increase their DNA content, protein production, and cell size, ultimately boosting their reproductive success.
A research group has discovered a genetic mechanism that controls the development of wood cells in plant roots, allowing for potential engineering of more wood-producing plants. The study, published in Current Biology, sheds light on the formation of water-transporting tissues and their role in plant colonization of land.
Researchers at Ben-Gurion University developed techniques to manipulate root development functionality, enabling plants to adapt to hostile environments. By over-expressing a specific gene, they controlled lateral root growth and demonstrated its impact on plant hormone signals.
A new study has identified DUO1, a genetic hierarchy that governs sperm cell production and fertility in flowering plants. The research found that DUO1 acts as a master switch to ensure twin fertile sperm cells are made in each pollen grain.
Researchers identified a plant clock gene that works in human cells and vice versa, with similar function. The study suggests convergent evolution as the explanation for this phenomenon, highlighting the importance of maintaining accurate circadian rhythms in both plants and humans.
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.
Researchers have identified two essential genes that control the accumulation and detoxification of arsenic in plant cells, providing a promising basis for reducing arsenic levels in crops from polluted regions. By controlling these genes, plants can be developed to prevent toxic metal transfer, limiting entry into the food chain.