| Protected cultivation in Europe |
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| Evaluation of global, photosynthetically active radiation and diffuse radiation transmission of agricultural screens |
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| Environmental impact of screenhouse and open-field cultivation using a life cycle analysis: The case study of green bean production |
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| The effect of environmental conditions on nutritional quality of cherry tomato fruits: Evaluation of two experimental Mediterranean greenhouses |
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| Effects of EC-based irrigation scheduling and CO<sub>2</sub> enrichment on water use efficiency of a greenhouse cucumber crop |
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| Environmental impact of greenbean cultivation: Comparison of screen greenhouses vs. open field |
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| Characterization of growth and quality parameters in escarole (Cichorium endivia L.) with different covering techniques |
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| Sucrolytic activities in cherry tomato fruits in relation to temperature and solar radiation |
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| Antioxidant content and ascorbate metabolism in cherry tomato exocarp in relation to temperature and solar radiation |
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| Effect of variable CO<sub>2</sub> enrichment on greenhouse production in mild winter climates |
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| Responses of cucumbers to mulching in an unheated plastic greenhouse |
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| Sulfur, chromium, and selenium accumulated in Chinese cabbage under direct covers |
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| A study of direct solar radiation transmission in asymmetrical multi-span greenhouses using scale models and simulation models |
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| Row covers for quality improvement of Chinese cabbage (<i>Brassica rapa</i> subsp <i>Pekinensis</i>) |
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| Effect of root zone temperature on accumulation of molybdenum and nitrogen metabolism in potato plants |
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| Influence of thermal regime of soil on the sulfur (S) and selenium (Se) concentration in potato plants |
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| The influence of the root zone temperatures on the phytoextraction of boron and aluminium with potato plants growing in the field |
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| Productivity of leaf and root vegetable crops under direct cover |
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| Yield and chemical composition of Chinese cabbage in relation to thermal regime as influenced by row covers |
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| Effect of soil temperature on K and Ca concentrations and on ATPase and pyruvate kinase activity in potato roots |
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| Accumulation of Zn, Cd, Cu, and Pb in Chinese cabbage as influenced by climatic conditions under protected cultivation |
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| Root zone temperature affects the phytoextraction of Ba, Cl, Sn, Pt, and Rb using potato plants (<i>Solanum tuberosum</i> L. var. Spunta) in the field |
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| Influence of root temperature on uptake and accumulation of Ni and Co in potato |
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| Root-zone temperature influences the distribution of Cu and Zn in potato-plant organs |
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| Floating row covers affect the molybdenum and nitrogen status of Chinese cabbage grown under field conditions |
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| Influence of root temperature on phytoaccumulation of As, Ag, Cr, and Sb in potato plants (<i>Solanum tuberosum</i> L. Var. Spunta) |
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| The response of shoot accumulation of trace elements in Chinese cabbage to microclimate modification |
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| Phytoextraction of Cd and Pb and physiological effects in potato plants (<i>Solanum tuberosum</i> var. Spunta):: Importance of root temperature |
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| Production and composition of Chinese cabbage under plastic rowcovers in southern Spain |
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| Nitrogen metabolism in pepper plants applied with different bioregulators |
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| Temperature in relation to phosphorus nutrition in Chinese cabbage |
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| Potato performance in response to different mulches. I. Nitrogen metabolism and yield |
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| Optimum range in potato tubers grown under plastic mulches:: III Quality and physiological indices and parameters |
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| Optimum range of biochemical and physiological parameters of macronutrients for Chinese cabbage (<i>Brassica pekinensis</i> [Lour] Rupr. cv. Nagaoka 50) grown under floating mulch |
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| Optimum range of biochemical indicators of micronutrients in Chinese cabbage (<i>Brassica pekinensis</i> [Lour] Rupr. cv. Nagaoka 50) grown under <i>floating</i> mulch |
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| Optimum range of macronutrients in Chinese cabbage (<i>Brassica pekinensis</i> [Lour] Rupr. cv. Nagaoka 50) grown under floating mulch |
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| Optimum range of micronutrients in Chinese cabbage (<i>Brassica pekinensis</i> [Lour] Rupr. cv. Nagaoka 50) grown under <i>floating</i> mulches |
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| Optimum range in potato tubers grown under plastic mulches:: II.: Micronutrients |
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| Optimum range in potato tubers grown under plastic mulches I.: Macronutrients. |
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| Optimum range in leaves of potato grown under plastic mulches:: III.: Micronutrients |
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| Optimum range in leaves of potato grown under plastic mulches:: I.: Macronutrients. |
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| Optimum range in leaves of potato grown under plastic mulches.: V.: Physiological indices and ionic balance |
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| Optimum range in leaves of potato grown under plastic mulches:: IF.: Bioindicators of macronutrients |
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| Semi-forcing with floating mulch increases yield of Chinese cabbage (<i>Brassica pekinensis</i> [Lour] Rupr. cv, Nagaoka 50) |
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| Protected cultivation of horticultural crops worldwide |
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| Vegetable crop responses in improved low-cost plastic greenhouses |
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