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Oceanographic submersibles --- Autonomous underwater vehicles --- AUVs (Autonomous underwater vehicles) --- Underwater robotic vehicles --- Unmanned submersibles --- Unmanned undersea vehicles --- Unmanned underwater vehicles --- Autonomous vehicles --- Submersibles --- Deep diving vehicles --- Deep-sea research vessels --- Deep submergence vehicles --- Manned exploration devices --- Automated vehicles
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Global warming has dramatically increased the frequency and severity of flooding events worldwide. As a result, many man-made and natural ecosystems have become flood-prone. For plants, the main consequence of flooding is the drastic reduction of oxygen availability that restricts respiratory energy production and finally affects survival. Flooding can negatively influence crop production and wild plant distributions, since most plants are sensitive to excessively wet conditions. However, plants have evolved a broad spectrum of adaptive responses to oxygen deficiency that eventually leads to tolerance. Many of these morphological and physiological adaptations have been described in some crops and wild plant species and considerable progress has been made in understanding the molecular aspects governing tolerance traits. Moreover, the molecular mechanism of plant oxygen sensing has been recently elucidated. However, many other aspects concerning plant acclimation responses to flooding remain unanswered.
Botany. --- Plants. --- Flora --- Plant kingdom --- Plantae --- Vascular plants --- Vegetable kingdom --- Vegetation --- Wildlife --- Organisms --- Botany --- Botanical science --- Floristic botany --- Phytobiology --- Phytography --- Phytology --- Plant biology --- Plant science --- Biology --- Natural history --- Plants --- submergence --- hypoxia --- Anoxia --- low oxygen --- waterlogging --- flooding
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Molecular oxygen deficiency leads to altered cellular metabolism and can dramatically reduce crop productivity. Nearly all crops are negatively affected by a lack of oxygen (hypoxia) due to adverse environmental conditions such as excessive rain and soil waterlogging. Extensive efforts to fully understand how plants sense oxygen deficiency and their ability to respond using different strategies are crucial to increase hypoxia tolerance. Progress in our understanding has been significant in recent years. This topic certainly deserves more attention from the academic community; therefore, we have compiled a series of articles reflecting the advancements made thus far.
ethylene --- Ein2 --- germination --- RbohD --- submergence --- hypoxia --- post-submergence recovery --- legumes --- plant water relations --- shoot to root ratio --- Lotus japonicus --- leaf greenness --- leaf desiccation --- stomatal conductance --- aerenchyma --- auxin --- rice (Oryza sativa) --- root --- waterlogging --- leaf gas exchange --- waterlogging tolerance --- organic compound --- plant growth --- Physalis peruviana L. --- anaerobiosis --- anoxia --- Arabidopsis --- flooding --- rice --- development --- apoplastic barrier --- barrier to radial oxygen loss (ROL) --- lignin --- Oryza glumaepatula --- O. rufipogon --- rice (O. sativa) --- suberin --- wild rice --- acetolactate synthase --- ethanol fermentation --- imidazolinones --- mode of action --- aerobic fermentation --- Oryza sativa --- Submergence --- Activity of antioxidant enzymes --- Chlorophyll content --- phytoglobin --- VII Ethylene Response Factor --- PRT6 N-degron pathway of proteolysis --- Solanum tuberosum --- Solanum lycopersicum --- Solanum dulcamara --- coleoptile --- root hypoxia --- oxygen sensing --- jasmonate --- root meristem --- abiotic stress --- RNA-seq --- transcription factor --- fruit trees --- Prunus --- hypertrophied lenticels --- anaerobic fermentation --- energy metabolism --- root respiration --- anoxic signaling --- potassium --- pH --- acidification --- fluorescence microscopy --- Triticum aestivum --- direct seeding --- anaerobic germination --- low O2 stress --- regulatory mechanism --- metabolic adaptation --- drought --- alternated stress --- maize --- teosinte --- microRNAs --- metabolomics --- phloem --- n/a
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Autonomous Underwater Vehicles (AUVs) are remarkable machines that revolutionized the process of gathering ocean data. Their major breakthroughs resulted from successful developments of complementary technologies to overcome the challenges associated with autonomous operation in harsh environments. Most of these advances aimed at reaching new application scenarios and decreasing the cost of ocean data collection, by reducing ship time and automating the process of data gathering with accurate geo location. With the present capabilities, some novel paradigms are already being employed to further exploit the on board intelligence, by making decisions on line based on real time interpretation of sensor data. This book collects a set of self contained chapters covering different aspects of AUV technology and applications in more detail than is commonly found in journal and conference papers. They are divided into three main sections, addressing innovative vehicle design, navigation and control techniques, and mission preparation and analysis. The progress conveyed in these chapters is inspiring, providing glimpses into what might be the future for vehicle technology and applications.
Oceanographic submersibles. --- Remote submersibles. --- Submersibles. --- Submergibles --- Undersea vehicles --- Underwater vehicles --- Vehicles --- Remotely controlled underwater vehicles --- Remotely operated underwater vehicles --- ROVs (Submersibles) --- Underwater robotic vehicles --- Unmanned submersibles --- Unmanned undersea vehicles --- Unmanned underwater vehicles --- URVs (Submersibles) --- UUVs (Submersibles) --- Submersibles --- Vehicles, Remotely piloted --- Deep diving vehicles --- Deep-sea research vessels --- Deep submergence vehicles --- Manned exploration devices --- Automotive technology & trades
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Oceanographic submersibles --- Remote submersibles --- Earth & Environmental Sciences --- Marine Science --- Remotely controlled underwater vehicles --- Remotely operated underwater vehicles --- ROVs (Submersibles) --- Underwater robotic vehicles --- Unmanned submersibles --- Unmanned undersea vehicles --- Unmanned underwater vehicles --- URVs (Submersibles) --- UUVs (Submersibles) --- Deep diving vehicles --- Deep-sea research vessels --- Deep submergence vehicles --- Manned exploration devices --- Submersibles --- Vehicles, Remotely piloted --- Autonomous underwater vehicles --- AUVs (Autonomous underwater vehicles) --- Autonomous vehicles --- Automated vehicles
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Oceanographic submersibles --- Remote submersibles --- Autonomous underwater vehicles --- AUVs (Autonomous underwater vehicles) --- Underwater robotic vehicles --- Unmanned submersibles --- Unmanned undersea vehicles --- Unmanned underwater vehicles --- Automated vehicles --- Submersibles --- Remotely controlled underwater vehicles --- Remotely operated underwater vehicles --- ROVs (Submersibles) --- URVs (Submersibles) --- UUVs (Submersibles) --- Vehicles, Remotely piloted --- Deep diving vehicles --- Deep-sea research vessels --- Deep submergence vehicles --- Manned exploration devices
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Submersibles and Their Use in Oceanography and Ocean Engineering
Ocean engineering. --- Oceanographic submersibles. --- Underwater exploration. --- Deep-sea engineering --- Oceaneering --- Submarine engineering --- Underwater engineering --- Engineering --- Marine resources --- Oceanography --- Exploration, Submarine --- Exploration, Underwater --- Ocean exploration --- Submarine exploration --- Under water exploration --- Undersea exploration --- Deep diving vehicles --- Deep-sea research vessels --- Deep submergence vehicles --- Manned exploration devices --- Submersibles --- Equipment and supplies --- Oceanographic submersibles --- Underwater exploration --- Ocean engineering
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Oceanographic submersibles --- Remote submersibles --- Remotely controlled underwater vehicles --- Remotely operated underwater vehicles --- ROVs (Submersibles) --- Underwater robotic vehicles --- Unmanned submersibles --- Unmanned undersea vehicles --- Unmanned underwater vehicles --- URVs (Submersibles) --- UUVs (Submersibles) --- Submersibles --- Vehicles, Remotely piloted --- Deep diving vehicles --- Deep-sea research vessels --- Deep submergence vehicles --- Manned exploration devices
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Underwater exploration --- Oceanographic submersibles --- Remote submersibles --- Remotely controlled underwater vehicles --- Remotely operated underwater vehicles --- ROVs (Submersibles) --- Underwater robotic vehicles --- Unmanned submersibles --- Unmanned undersea vehicles --- Unmanned underwater vehicles --- URVs (Submersibles) --- UUVs (Submersibles) --- Submersibles --- Vehicles, Remotely piloted --- Deep diving vehicles --- Deep-sea research vessels --- Deep submergence vehicles --- Manned exploration devices --- Exploration, Submarine --- Exploration, Underwater --- Ocean exploration --- Submarine exploration --- Under water exploration --- Undersea exploration --- Oceanography
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Molecular oxygen deficiency leads to altered cellular metabolism and can dramatically reduce crop productivity. Nearly all crops are negatively affected by a lack of oxygen (hypoxia) due to adverse environmental conditions such as excessive rain and soil waterlogging. Extensive efforts to fully understand how plants sense oxygen deficiency and their ability to respond using different strategies are crucial to increase hypoxia tolerance. Progress in our understanding has been significant in recent years. This topic certainly deserves more attention from the academic community; therefore, we have compiled a series of articles reflecting the advancements made thus far.
Research & information: general --- Biology, life sciences --- ethylene --- Ein2 --- germination --- RbohD --- submergence --- hypoxia --- post-submergence recovery --- legumes --- plant water relations --- shoot to root ratio --- Lotus japonicus --- leaf greenness --- leaf desiccation --- stomatal conductance --- aerenchyma --- auxin --- rice (Oryza sativa) --- root --- waterlogging --- leaf gas exchange --- waterlogging tolerance --- organic compound --- plant growth --- Physalis peruviana L. --- anaerobiosis --- anoxia --- Arabidopsis --- flooding --- rice --- development --- apoplastic barrier --- barrier to radial oxygen loss (ROL) --- lignin --- Oryza glumaepatula --- O. rufipogon --- rice (O. sativa) --- suberin --- wild rice --- acetolactate synthase --- ethanol fermentation --- imidazolinones --- mode of action --- aerobic fermentation --- Oryza sativa --- Submergence --- Activity of antioxidant enzymes --- Chlorophyll content --- phytoglobin --- VII Ethylene Response Factor --- PRT6 N-degron pathway of proteolysis --- Solanum tuberosum --- Solanum lycopersicum --- Solanum dulcamara --- coleoptile --- root hypoxia --- oxygen sensing --- jasmonate --- root meristem --- abiotic stress --- RNA-seq --- transcription factor --- fruit trees --- Prunus --- hypertrophied lenticels --- anaerobic fermentation --- energy metabolism --- root respiration --- anoxic signaling --- potassium --- pH --- acidification --- fluorescence microscopy --- Triticum aestivum --- direct seeding --- anaerobic germination --- low O2 stress --- regulatory mechanism --- metabolic adaptation --- drought --- alternated stress --- maize --- teosinte --- microRNAs --- metabolomics --- phloem
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