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PHY Physiology & Biochemistry --- cold resistance --- physiology
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Glycine max --- cold resistance --- ecology --- temperature factor --- thesis
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HOR Horticulture --- Mediterranean cultures --- Palmae --- cold resistance --- horticulture --- special cultures
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BR Staff Publications --- global change --- temperature effects --- Arctic --- chlorophyll fluorescence --- cold resistance
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GBZ General Biology, Zoology & Biophilosophy --- temperature effects --- extreme habitats --- environmental biology --- acclimation --- heaths --- cold resistance --- cold tolerance
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Cold stress is one of the prevalent environmental stresses affecting crop productivity, particularly in temperate regions. Numerous plant types of tropical or subtropical origin are injured or killed by non-freezing low temperature, and display a range of symptoms of chilling injury such as chlorosis, necrosis, or growth retardation. In contrast, chilling tolerant species thrive well at such temperatures. To thrive under cold stress conditions, plants have evolved complex mechanisms to identify peripheral signals that allow them to counter varying environmental conditions. These mechanisms include stress perception, signal transduction, transcriptional activation of stress-responsive target genes, and synthesis of stress-related proteins and other molecules, which help plants to strive through adverse environmental conditions. Conventional breeding methods have met with limited success in improving the cold tolerance of important crop plants through inter-specific or inter-generic hybridization. A better understanding of physiological, biochemical and molecular responses and tolerance mechanisms, and discovery of novel stress-responsive pathways and genes may contribute to efficient engineering strategies that enhance cold stress tolerance. It is therefore imperative to accelerate the efforts to unravel the biochemical, physiological and molecular mechanisms underlying cold stress tolerance in plants. Through this new book, we intend to integrate the contributions from plant scientists targeting cold stress tolerance mechanisms using physiological, biochemical, molecular, structural and systems biology approaches. It is hoped that this collection will serve as a reference source for those who are interested in or are actively engaged in cold stress research.
Plants --- Cold-tolerant plants. --- Frost resistance. --- Effect of temperature on. --- Plants, Effect of temperature on --- Temperature --- Cold resistance of plants --- Frost hardiness of plants --- Frost resistance of plants --- Winter hardiness of plants --- Vegetation and climate --- Effect of atmospheric temperature on --- Physiological effect --- Effect of cold on --- Cold resistance --- Frost hardiness --- Winter hardiness --- Hardiness --- Plant physiology. --- Plant breeding. --- Agriculture. --- Cytology. --- Plant Physiology. --- Plant Breeding/Biotechnology. --- Oxidative Stress. --- Cell biology --- Cellular biology --- Biology --- Cells --- Cytologists --- Farming --- Husbandry --- Industrial arts --- Life sciences --- Food supply --- Land use, Rural --- Crops --- Agriculture --- Breeding --- Botany --- Physiology --- Oxidative stress. --- Oxidation-reduction reaction --- Stress (Physiology)
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The forest ecosystem is the largest terrestrial ecosystem on earth. It not only has the highest biological productivity and the strongest ecological effect, but can also maintain carbon and oxygen balance and control temperature rise. With the rapid development of the economy, climate change has become the largest challenge to the continuation of forest ecosystem. With constantly changing climate, environmental conditions including CO2 concentration,temperature,intensity of rainfall and the probability of extreme weathers are all affected. In particular, extreme heat, extreme drought and intense fall will become more frequent and widespread. Climate change has a great impact on all ecosystems, especially forest ecosystems. As the largest carbon pool on the earth, these area play a very important role in mitigating global climate change. It is necessary to understand what changes have taken place in the growth and development of trees under climate change, the changes that have taken place in the regulation mechanism of trees when multiple stresses occur at the same time, and to determine the regulation mechanism of trees under new stresses? This book presents relevant results from scientific research in the fields of forest tree gene regulation in response to abiotic and biotic stresses that can contribute to the understanding of forest response mechanisms to different environmental signals and provide a new insight for tolerant tree improvement.
Research & information: general --- Biology, life sciences --- Forestry & related industries --- Ligustrum × vicaryi Rehd. --- aquaporin --- natural cold stress --- cold resistance --- drought stress --- waterlogging stress --- plant morphology --- physiology and biochemistry --- transcription factor --- bHLH transcription factor --- cold stress --- expression pattern --- genome-wide identification --- Liriodendron chinense --- Pinus massoniana --- aluminum stress --- transcriptomic --- WGCNA analysis --- phenylpropanoid biosynthesis --- R2R3-MYB --- Populus --- rust --- Melampsora larici-populina --- Larix kaempferi --- GRAS family --- genome-wide analysis --- phytohormone --- qRT-PCR --- Pinus massoniana Lamb. --- AP2/ERF transcription factor --- bioinformatics --- exogenous hormone --- freezing stress --- apricot kernel --- transcriptome --- transcription factors --- ROS --- regulatory network --- miRNA --- Tilia tuan --- high-throughput sequencing --- seed maturation
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