Results 21 to 30 of about 2,518 (155)
, 2023 Published as part of Gierlasiński, Grzegorz, Kolago, Grzegorz, Taszakowski, Artur, Miłkowski, Marek, Regner, Jarosław, Kojder, Dariusz, Kowalczyk, Jan Krzysztof, Grzywocz, Janusz, Burda, Martyna, Masłowski, Adrian & Rutkowski, Tomasz, 2023, Przyczynek do rozmieszczenia pluskwiaków różnoskrzydłych (Hemiptera: Heteroptera) w Polsce - V / A contribution ...
Gierlasiński, Grzegorz +10 more
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GCB Bioenergy, 2022 The adoption of a bioenergy crop is affected by various factors, including but not limited to the characteristics of farmers, farm economics, market forces, and physical environment.
Kazi Masel Ullah, Puneet Dwivedi
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Quality enhancement of fruits conserved with essential oils prolonging storage
Biotechnologie, Agronomie, Société et Environnement, 2022 Description of the subject. Raspberries and strawberries are highly perishable due to postharvest fungal development. Numerous studies have shown that essential oils can be promising biopesticides for maintaining the quality of fresh fruit during ...
Asmaa Mziouid +9 more
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, 2023 Ptyas carinata (Ģnther, 1858b) — Native. Zaocys carinatus Ģnther, 1864: 256 [nec Coryphodon carinatus Ģnther, 1858b: 112–113]. Lectotype: BMNH 1946.1.11.35, designated by Ģnther (1864: 256). Type locality: “Borneo [and] Chusan [and] Khasya [and] Sikkim [and] Affghanistan [sic]” (= Borneo; Zhoushan, China; Kasya, Kushinagar, India; Sikkim, India, and ...
Figueroa, Alex +2 more
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, 2023 Eutropis carinata (Schneider, 1801) — Erroneous. Common Skink Singapore records. No published records. Remarks. Eutropis carinata inhabits India, Bangladesh, Nepal, Maldives and Sri Lanka (Somaweera & Somaweera 2009a). A specimen in ZMB’s accession catalogue was collected by Jagor, supposedly in Singapore.
Figueroa, Alex +2 more
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Biochemical conversion of Brassica carinata biomass to organic acids
GCB Bioenergy, 2021 The economics of the inedible oilseed crop Brassica carinata as a source of renewable fuels can be enhanced by converting its cellulosic biomass to value‐added chemicals, such as organic acids.
Ehab M. Ammar +2 more
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The complete mitochondrial genome of Eclipophleps carinata (Orthoptera: Acridoidea: Gomphoceridae)
Mitochondrial DNA. Part B. Resources, 2021 The complete Eclipophleps carinata mitogenome was sequenced through Illumina HiSeq 2500 platform and the resulting data were analyzed in this paper. The mitochondrial genome of E. carinata is a typical circular DNA molecule of 15,781 bp with 37 genes and
Hongge Qian +5 more
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The Impacts of Micronutrient Fertility on the Mineral Uptake and Growth of Brassica carinata
Agriculture, 2021 Many abiotic factors impact the yield and growth of Brassica carinata (commonly referred to as carinata or Ethiopian mustard). Very little is known about carinata and how mineral nutrients impact its growth, and more specifically, the sufficiency values ...
Paul Cockson +8 more
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Phenotypic Diversity in Leaf Cuticular Waxes in Brassica carinata Accessions
Plants, 2023 Brassica carinata has received considerable attention as a renewable biofuel crop for semi-arid zones due to its high oil content and polyunsaturated fatty acids contents. It is important to develop new drought-resistant cultivars of B.
Pernell Tomasi, Hussein Abdel-Haleem
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, 2021 Heteronardoa carinata (Koehler, 1910) Figure 10A–D Koehler 1910: 165 (as Nardoa). Koehler 1910: 168; Fisher 1919: 383 (as Nardoa squamulosa). H.L. Clark 1921: 56; A.M. Clark 1967: 186 (as Certonardoa carinata). H.L. Clark 1921: 56 (as Certonardoa squamulosa). Macan 1938: 408 (as Narcissia mohamedi). Hayashi 1973a: 6; 1973b: 65 (as Heteronardoa sagamina)
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