Camelina sativa: Comparison
Please note this is a comparison between Version 2 by Wendy Huang and Version 1 by Martina Ghidoli.

Camelina sativa (L.) Crantz, also called gold-of-pleasure, false flax, or linseed dodder, is an oilseed crop belonging to the tribe Camelineae of the mustard family (Brassicaceae). Camelina is a hardy plant that adapts very well to different types of soil and grows best in cool semi-arid climates. The great potential of this crop is also being exploited to obtain a sustainable feedstock for its different applications, and to improve dryland agriculture. Camelina can be used to improve the quality of foods, such as dairy products and meat, and the consumption of its oil has potential benefits for human health.

  • Camelina sativa
  • oilseed crops
  • PUFA
  • cover crop

1. Introduction

Camelina sativa (L.) Crantz, also called gold-of-pleasure, false flax, or linseed dodder, is an oilseed crop belonging to the tribe Camelineae of the mustard family (Brassicaceae) [1,2,3][1][2][3].
Plants are erect and typically reach heights between 30 and 90 cm. Rosette leaves are not lobed and are withered by the time of flowering. The stems are branched, woody when mature, and can be sparsely hairy. The leaves alternate on the stem and are lanceolate with a length of 2–8 cm and a width of 2–10 mm. Inflorescences are racemes with small flowers in terminal clusters. The flowers are pale yellow with four spatulate petals. The siliques are 7 to 9 mm long, leathery, smooth, and usually contain 5–15 golden brown seeds. Seeds are small, generally 2 to 3 mm long, brown in colour, rough, and have a rippled surface (Figure 1).
Figure 1.
Camelina sativa
crop. (
a
) Flowering plants; (
b
) silique; (
c
) opened silique; (
d
) seeds.
The weight of 1,000 seeds is in the range of 0.8 to 2.0 grams. The seeds contain 38 to 43% oil, and 27% to 32% protein. Camelina reproduces through seed and is primarily a self-pollinating species [4,5][4][5].
The possible centre of origin is located between Ukraine and Russia. The genetic diversity hotspot was identified in this region [6]. The distribution of camelina extends from Europe to southwestern Asia, and it was introduced in America and Canada as a contaminant of flax, hence the name false flax. C. sativa is a very ancient crop plant, and archaeological evidence suggests that its cultivation began in the Neolithic age in south-eastern Europe and during the Iron age, it was an important crop in most of Europe. In 1950 in Denmark, a mummified human body datable to this age was found from whose remains the contents of the last meal were identified: barley, flax, oats, and camelina. During the Roman Empire, the oil extracted from the seeds of this plant was used for lamps, body care, and food. In 600 BC, camelina was cultivated in the Rhine valleys as a monoculture. Its cultivation continued until 1940 throughout France, Belgium, and Russia, where the oil was also used as fuel. Since 1950, this crop has been abandoned and replaced with more profitable crops [2,7,8][2][7][8].

2. Cultivation

Global climate change is leading to the deterioration of the sustainability of various economic sectors worldwide. In particular, the most affected sector that causes the greatest concern is the agricultural sector, which has been increasingly looking for crops that can be as resilient as possible to this irreversible climatic variability [19,20][9][10]. Crop diversification is used to promote better environmental, social, and economic sustainability of agri-food systems, maintaining their production capacity, providing ecosystem services, and promoting the efficient use of resources. Camelina is a hardy plant that adapts very well to different types of soil and grows best in cool semi-arid climates. Camelina can tolerate drought conditions, although they can negatively impact sensitive growth phases, such as flowering [4,21][4][11]. Different works conducted in different countries worldwide on camelina seed yield were reviewed by Berti and co-authors [3]. Reported yields vary greatly depending on the climate, the cultivar used, and soil type. However, the highest seed yields have been registered in Mediterranean climates [2,10,19,22,23][2][9][12][13][14]. In the western Prairie provinces of Canada and the North and Central Plains in the USA, camelina may be economically competitive with other alternative oilseeds common to these areas, such as soybean (Glycine max (L.), flax (Linum usitatissimum L.), rapa canola (Brassica rapa L.), juncea canola (Brassica juncea L.), yellow mustard (Sinapis alba L.), oriental mustard (Brassica juncea L.), and Ethiopian mustard (Brassica carinata L.) [24][15]. In the upper Midwest Corn Belt region, camelina cultivation as a standalone crop could not be competitive with corn and soybean, and should be used in winter dual cropping to integrate the corn–soybean systems [25][16]. Its cultivation is also arousing growing interest in Italy [11,21,26][11][17][18]. In fact, a yield of 1200–3300 kg/ha in the Italian Lombardy Region was reported using seven different spring varieties (Calena, Ligena, Ukrajinskaja, Lindo, Zarja Socialisa, Soledo, and Morgesonne) [11][17]. In tThis paper, the e agronomic performance over two consecutive years of camelina sown in spring and autumn was evaluated in comparison with rapeseed (Brassica napus L.). The result showed, in general, the seed yield is similar to that of the rapeseed control and, on average, between 1340 and 1625 kg/ha. Furthermore, regarding the two sowing seasons, autumn planting allowed a better yield [11][17]. Camelina can be used in intercropping and rotation systems, especially in drier areas [1,3,19][1][3][9]. Winter genotypes are the best varieties for growing in winter to protect the soil. Concluding, using winter camelina as a cover crop prevents erosion and promotes carbon sequestration in the soil. Moreover, it can also be used to control weeds as it inhibits their growth [27,28][19][20].

3. Uses and Potential

In recent years, the interest in this plant has increased significantly as an oilseed crop for food, feed, jet fuel, and bio-based products [13,24][15][21]. Berti and colleagues reported the great potential of the crop and its numerous uses, particularly the oil properties and composition, which are useful for the purposes reported in Table 1 [3].
Table 1.
Uses of
Camelina sativa
(modified from Berti et al., 2016 [3]).
Uses Details References
Human nutrition Food [28,29,30,31,32,33][20][22][23][24][25][26]
Diet supplements
Animal feed Bird Chicken broilers [19,34,][9]35,[27]36,[37,38,28][29][30][31]39[32]
Laying hens
Mammals Cows [40,41,42,43,][3644,][3745,][3846,][3947,47][33][34][35][40][40]
Swine
Sheep
Rabbit
Swine
Fish Salmon [48,49,50,51,][41]52,[42]53,[54,55,43][44][45][46][47][48]56[49]
Trout
Other fish
Chemicals Polymers [57,58,59,60,[61,62,5063,64]][51][52][53][54][55][56][57]
Adhesives
Resins
Cosmetics ingredients
Fuels Biodiesel [1,3,5,13,64,65,66,67,68,69,70,71,72][1][3][5][21][57][58][59][60][61][62][63][64][65]
Jet fuel
Camelina can be used to improve the quality of foods, such as dairy products and meat, and the consumption of its oil has potential benefits for human health [73][66]. The oil is rich in essential omega-3 fatty acids (e.g., α-linolenic acid) associated with reducing the risks of coronary and inflammatory diseases. High polyunsaturated fatty acids content could reduce blood serum cholesterol levels [74][67], and improve serum lipid profiles [75][68] while protecting against cardiovascular risk factors. In folk medicine, camelina oil was used to treat skin wounds and burns [76][69]. In addition to the various benefits, the high levels of tocopherols and phytosterols with antioxidant activity increase the shelf life and stability of the oil [18,77][70][71]. Several studies have demonstrated the usefulness of camelina meal as a component of feed for broilers, cattle, dairy cattle, and fish, such as salmon (Table 1), with the added benefit of increasing the omega-3 content [50,78][43][72]. Camelina meal obtained from high-pressure seed crushing, or a pre-press solvent extraction process represents an important output with considerable economic value. In animal feed, camelina flour and seeds are considered beneficial in limited quantities [19][9]. The presence of anti-nutritional compounds limits its use in zootechnical nutrition with a maximum percentage of 10% [79][73]. However, compared to other brassicas, the sinapine content (sinapines are alkaloids present in the seeds of Brasssicaceae that reduce the digestibility of proteins) is lower in the camelina meal. The glucosinolate content is mainly considered to evaluate the palatability, and it can be included with a content of 27–32 mmol/kg glucosinolates (GSLs) [80][74]. Additionally, considering the glucosinolates, camelina’s accessions with a low content of erucic acid can be selected for animal diets. In the US Department of Agriculture’s (USDA) National Genetic Resources Program collection, erucic acid content varies from 1.8–4.8% in camelina seed meal, and for feed, it is limited to a maximum of <2% [19][9]. Neupane et al. [19][9] evaluated the effects of camelina meal on different animals’ diets. Adding camelina flour or seed oil to the diets of dairy cows led to an increase in the MUFA (monounsaturated fatty acid) and PUFA (poly unsaturated fatty acid) content in the milk with a consequent decrease in saturated fatty acids, without altering other parameters, such as the intake of dry matter, milk production, or digestibility. In sheep diets, the addition of camelina flour increased the total omega-3 content and improved the omega-6/omega-3 ratio in both lamb meat and milk, the oxidative stability of the milk increased, and there was a reduction in atherogenic and thrombogenic indices. In pigs’ diet, the inclusion of camelina seed meal by up to 18% increased the content of α-linolenic acid and reduced the cholesterol content of the meat, thus improving its quality. In addition to the quality of the final product, the animals’ health improved. Camelina meal and oil are excellent substitutes for fish meal and fish oil in fish feed. Several studies have shown an improvement in the total lipid content in salmon (Salmo salar L.) and cod (Gadus morhua L.) without affecting the sensory quality. The use of camelina in fish feed improved the content without adversely affecting the sensory quality of the fish fillets. Replacing fish oil with camelina oil had no effect on growth performance for most fish. It also tends to increase the omega-3 PUFA content in meat [48,50][41][43]. Another work published in 2020 reported the effect of different percentages of camelina cake in laying hens’ diet. The great potential of this crop is also being exploited to obtain a sustainable feedstock for its different applications, and to improve dryland agriculture [16][75]. In addition, the oil was used as a fuel for lamps and in various industrial applications, while the stems were evaluated for their fibre [4,8][4][8]. Currently, camelina oil is used as a raw material to produce biofuels, especially for the aviation industry, as it is rich in unsaturated fatty acids, and, consequently, it does not solidify at low temperatures [81][76]. Recently, in Italy, experiments on the cultivation of this crop for the production of biodiesel and the extraction of pure vegetable oil obtained promising results [9][77]. The results obtained as “camelina fuels” are encouraging, having successfully surpassed the techno-economic and life cycle analyses (LCA) as a second-generation biofuel [81,82,83][76][78][79]. Camelina also has a high application potential in the chemical industry due to the presence in its oil of a distinctive fatty acid composition. The predominance of polyunsaturated fatty acids means that their use is multiple in the production of biopolymers, bioactive molecules, lubricants, adhesives, varnishes, paints, pharmaceuticals, cosmetics products, and packing materials [17,84][80][81].

References

  1. Zubr, J. Oil-Seed Crop: Camelina Sativa. Ind. Crops Prod. 1997, 6, 113–119.
  2. Vollmann, J.; Moritz, T.; Kargl, C.; Baumgartner, S.; Wagentristl, H. Agronomic Evaluation of Camelina Genotypes Selected for Seed Quality Characteristics. Ind. Crops Prod. 2007, 26, 270–277.
  3. Berti, M.; Gesch, R.; Eynck, C.; Anderson, J.; Cermak, S. Camelina Uses, Genetics, Genomics, Production, and Management. Ind. Crops Prod. 2016, 94, 690–710.
  4. Francis, A.; Warwick, S.I. The Biology of Canadian Weeds. 142. Camelina Alyssum (Mill.) Thell.; C. Microcarpa Andrz. Ex DC.; C. Sativa (L.) Crantz. Can. J. Plant Sci. 2009, 89, 791–810.
  5. Sainger, M.; Jaiwal, A.; Sainger, P.A.; Chaudhary, D.; Jaiwal, R.; Jaiwal, P.K. Advances in Genetic Improvement of Camelina sativa for Biofuel and Industrial Bio-Products. Renew. Sustain. Energy Rev. 2017, 68, 623–637.
  6. Ghamkhar, K.; Croser, J.; Aryamanesh, N.; Campbell, M.; Kon’kova, N.; Francis, C. Camelina (Camelina sativa (L.) Crantz) as an Alternative Oilseed: Molecular and Ecogeographic Analyses. Genome 2010, 53, 558–567.
  7. Falk, K.C. Camelina (Camelina Sativa). Biofuel Crops Prod. Physiol. Genet. 2013, 369–391.
  8. Larsson, M. Cultivation and Processing of Linum Usitatissimum and Camelina sativa in Southern Scandinavia during the Roman Iron Age. Veg. Hist. Archaeobotany 2013, 22, 509–520.
  9. Neupane, D.; Lohaus, R.H.; Solomon, J.K.Q.; Cushman, J.C. Realizing the Potential of Camelina sativa as a Bioenergy Crop for a Changing Global Climate. Plants 2022, 11, 772.
  10. Abbass, K.; Qasim, M.Z.; Song, H.; Murshed, M.; Mahmood, H.; Younis, I. A Review of the Global Climate Change Impacts, Adaptation, and Sustainable Mitigation Measures. Environ. Sci. Pollut. Res. 2022, 29, 42539–42559.
  11. Rostami Ahmadvandi, H.; Faghihi, A. Adapted Oilseed Crops with the Ability to Grow Economically in Dryland Conditions in Iran. Agrotech. Ind. Crops 2021, 1, 122–128.
  12. Gao, Y.; Jiang, C.; Zhang, Y.; Liu, L.; Wang, Y.; Kim, D.-S.; Yu, J.; Diao, J.; Wu, N.; Chen, M.; et al. Agronomic Performance of Camelina Genotypes Selected for Seed Yield and Quality Characteristics in Eastern China. Ind. Crops Prod. 2022, 184, 115077.
  13. Zanetti, F.; Eynck, C.; Christou, M.; Krzyżaniak, M.; Righini, D.; Alexopoulou, E.; Stolarski, M.J.; Van Loo, E.N.; Puttick, D.; Monti, A. Agronomic Performance and Seed Quality Attributes of Camelina (Camelina sativa L. Crantz) in Multi-Environment Trials across Europe and Canada. Ind. Crops Prod. 2017, 107, 602–608.
  14. Gore, M.; Kurt, O. Evaluation of Camelina Genotypes Grown in Winter at Different Sowing Times in Northern Turkey Ecological Conditions in Terms of Yield and Oil Ratio. Agrotech. Ind. Crops 2022, 31, 1397–1404.
  15. Blackshaw, R.; Johnson, E.; Gan, Y.; May, W.; McAndrew, D.; Barthet, V.; McDonald, T.; Wispinski, D. Alternative Oilseed Crops for Biodiesel Feedstock on the Canadian Prairies. Can. J. Plant Sci. 2011, 91, 889–896.
  16. Berti, M.; Gesch, R.; Johnson, B.; Ji, Y.; Seames, W.; Aponte, A. Double- and Relay-Cropping of Energy Crops in the Northern Great Plains, USA. Ind. Crops Prod. 2015, 75, 26–34.
  17. Masella, P.; Martinelli, T.; Galasso, I. Agronomic Evaluation and Phenotypic Plasticity of Camelina sativa Growing in Lombardia, Italy. Crop Pasture Sci. 2014, 65, 453–460.
  18. Estakhr, A.; Ranjbar, G. The Preliminary Study of Camelina Compatibility as a New Oil Crop in the Temperate Region of Fars Province. Agrotech. Ind. Crops 2021, 1, 77–84.
  19. Zubr, J. Qualitative Variation of Camelina sativa Seed from Different Locations. Ind. Crops Prod. 2003, 17, 161–169.
  20. Sydor, M.; Kurasiak-Popowska, D.; Stuper-Szablewska, K.; Rogoziński, T. Camelina Sativa. Status Quo and Future Perspectives. Ind. Crops Prod. 2022, 187, 115531.
  21. Matteo, R.; D’Avino, L.; Ramirez-Cando, L.J.; Pagnotta, E.; Angelini, L.G.; Spugnoli, P.; Tavarini, S.; Ugolini, L.; Foschi, L.; Lazzeri, L. Camelina (Camelina sativa L. Crantz) under Low-Input Management Systems in Northern Italy: Yields, Chemical Characterization and Environmental Sustainability. Ital. J. Agron. 2020, 15, 132–143.
  22. Tejera, N.; Vauzour, D.; Betancor, M.B.; Sayanova, O.; Usher, S.; Cochard, M.; Rigby, N.; Ruiz-Lopez, N.; Menoyo, D.; Tocher, D.R.; et al. A Transgenic Camelina sativa Seed Oil Effectively Replaces Fish Oil as a Dietary Source of Eicosapentaenoic Acid in Mice. J. Nutr. 2016, 146, 227–235.
  23. West, A.L.; Miles, E.A.; Lillycrop, K.A.; Napier, J.A.; Calder, P.C.; Burdge, G.C. Genetically Modified Plants Are an Alternative to Oily Fish for Providing N-3 Polyunsaturated Fatty Acids in the Human Diet: A Summary of the Findings of a Biotechnology and Biological Sciences Research Council Funded Project. Nutr. Bull. 2021, 46, 60–68.
  24. Dharavath, R.N.; Singh, S.; Chaturvedi, S.; Luqman, S. Camelina sativa (L.) Crantz A Mercantile Crop with Speckled Pharmacological Activities. Ann. Phytomedicine Int. J. 2016, 5, 6–26.
  25. Mondor, M.; Hernández-Álvarez, A.J. Camelina sativa Composition, Attributes, and Applications: A Review. Eur. J. Lipid Sci. Technol. 2022, 124, 2100035.
  26. Musazadeh, V.; Dehghan, P.; Azadmard-Damirchi, S. Effectiveness of Co-Administration of Camelina Oil and Caloric Restriction on Cardiometabolic Risk Factors, Liver Function and Mental Health in Patients with Non-Alcoholic Fatty Liver Disease: A Blinded Randomized Controlled Trial Protocol. J. Nutr. Food Secur. 2022, 9, 379–387.
  27. Jaśkiewicz, T.; Sagan, A.; Puzio, I. Effect of the Camelina sativa Oil on the Performance, Essential Fatty Acid Level in Tissues and Fat-Soluble Vitamins Content in the Livers of Broiler Chickens. Livest. Sci. 2014, 165, 74–79.
  28. Orczewska-Dudek, S.; Pietras, M. The Effect of Dietary Camelina sativa Oil or Cake in the Diets of Broiler Chickens on Growth Performance, Fatty Acid Profile, and Sensory Quality of Meat. Animals 2019, 9, 734.
  29. De Marzo, D.; Laudadio, V.; Khan, R.U.; Tufarelli, V.; Maiorano, G. Feeding of Camelina sativa Seeds to Light-Type Gentile Di Puglia Lambs: Effect on Productive Performance and Muscle Fatty Acid Composition. Anim. Biotechnol. 2022, 1–7.
  30. Zlepkin, V.A.; Salomatin, V.V.; Ryadnov, A.A.; Zlepkina, N.A.; Mishurova, M.N.; Ryadnova, T.A.; Kurskaya, Y.A. Vegetable Oil Various Types Together with Enzyme Preparation Influence on Broiler Chickens’ Meat Productivity and Quality. IOP Conf. Ser. Earth Environ. Sci. 2022, 965, 012035.
  31. Ciurescu, G.; Idriceanu, L.; Gheorghe, A.; Ropotă, M.; Drăghici, R. Meat Quality in Broiler Chickens Fed on Cowpea (Vigna Unguiculata Walp) Seeds. Sci. Rep. 2022, 12, 9685.
  32. Lolli, S.; Grilli, G.; Ferrari, L.; Battelli, G.; Pozzo, S.; Galasso, I.; Russo, R.; Brasca, M.; Reggiani, R.; Ferrante, V. Effect of Different Percentage of Camelina sativa Cake in Laying Hens Diet: Performance, Welfare, and Eggshell Quality. Animals 2020, 10, 1396.
  33. Peiretti, P.G.; Mussa, P.P.; Prola, L.; Meineri, G. Use of Different Levels of False Flax (Camelina sativa L.) Seed in Diets for Fattening Rabbits. Livest. Sci. 2007, 107, 192–198.
  34. Colombini, S.; Broderick, G.A.; Galasso, I.; Martinelli, T.; Rapetti, L.; Russo, R.; Reggiani, R. Evaluation of Camelina sativa (L.) Crantz Meal as an Alternative Protein Source in Ruminant Rations. J. Sci. Food Agric. 2014, 94, 736–743.
  35. Colonna, M.A.; Giannico, F.; Tufarelli, V.; Laudadio, V.; Selvaggi, M.; De Mastro, G.; Tedone, L. Dietary Supplementation with Camelina sativa (L. Crantz) Forage in Autochthonous Ionica Goats: Effects on Milk and Caciotta Cheese Chemical, Fatty Acid Composition and Sensory Properties. Animals 2021, 11, 1589.
  36. Mierlita, D.; Daraban, S.; Lup, F.; Chereji, A. The Effect of Grazing Management and Camelina Seed Supplementation in the Diet on Milk Performance and Milk Fatty Acid Composition of Dairy Ewes. J. Food Agric. Environ. 2011, 9, 368–373.
  37. Tedone, L.; Giannico, F.; Tufarelli, V.; Laudadio, V.; Selvaggi, M.; De Mastro, G.; Colonna, M.A. Camelina sativa (L. Crantz) Fresh Forage Productive Performance and Quality at Different Vegetative Stages: Effects of Dietary Supplementation in Ionica Goats on Milk Quality. Agriculture 2022, 12, 91.
  38. Taranu, I.; Gras, M.; Pistol, G.C.; Motiu, M.; Marin, D.E.; Lefter, N.; Ropota, M.; Habeanu, M. ω-3 PUFA Rich Camelina Oil By-Products Improve the Systemic Metabolism and Spleen Cell Functions in Fattening Pigs. PLOS ONE 2014, 9, e110186.
  39. Juodka, R.; Nainienė, R.; Juškienė, V.; Juška, R.; Leikus, R.; Kadžienė, G.; Stankevičienė, D. Camelina (Camelina sativa (L.) Crantz) as Feedstuffs in Meat Type Poultry Diet: A Source of Protein and n-3 Fatty Acids. Animals 2022, 12, 295.
  40. Riaz, R.; Ahmed, I.; Sizmaz, O.; Ahsan, U. Use of Camelina sativa and By-Products in Diets for Dairy Cows: A Review. Animals 2022, 12, 1082.
  41. Hixson, S.M.; Parrish, C.C.; Anderson, D.M. Full Substitution of Fish Oil with Camelina (Camelina Sativa) Oil, with Partial Substitution of Fish Meal with Camelina Meal, in Diets for Farmed Atlantic Salmon (Salmo Salar) and Its Effect on Tissue Lipids and Sensory Quality. Food Chem. 2014, 157, 51–61.
  42. Ruiz-Lopez, N.; Haslam, R.P.; Napier, J.A.; Sayanova, O. Successful High-level Accumulation of Fish Oil Omega-3 Long-chain Polyunsaturated Fatty Acids in a Transgenic Oilseed Crop. Plant J. 2014, 77, 198–208.
  43. Xue, X.; Hixson, S.M.; Hori, T.S.; Booman, M.; Parrish, C.C.; Anderson, D.M.; Rise, M.L. Atlantic Salmon (Salmo Salar) Liver Transcriptome Response to Diets Containing Camelina sativa Products. Comp. Biochem. Physiol. Part D Genom. Proteom. 2015, 14, 1–15.
  44. Betancor, M.B.; Sprague, M.; Sayanova, O.; Usher, S.; Campbell, P.J.; Napier, J.A.; Caballero, M.J.; Tocher, D.R. Evaluation of a High-EPA Oil from Transgenic Camelina sativa in Feeds for Atlantic Salmon (Salmo Salar L.): Effects on Tissue Fatty Acid Composition, Histology and Gene Expression. Aquaculture 2015, 444, 1–12.
  45. Tocher, D.R. Omega-3 Long-Chain Polyunsaturated Fatty Acids and Aquaculture in Perspective. Aquaculture 2015, 449, 94–107.
  46. Betancor, M.B.; Sprague, M.; Montero, D.; Usher, S.; Sayanova, O.; Campbell, P.J.; Napier, J.A.; Caballero, M.J.; Izquierdo, M.; Tocher, D.R. Replacement of Marine Fish Oil with de Novo Omega-3 Oils from Transgenic Camelina sativa in Feeds for Gilthead Sea Bream (Sparus Aurata L.). Lipids 2016, 51, 1171–1191.
  47. Wei, M.; Anderson, D.M.; Zhang, Z.; Colombo, S.M. High-Oil Residue Camelina Meal, a Viable Source of Protein at Low Levels in Diets for Juvenile Salmonids. Aquac. Nutr. 2020, 26, 558–567.
  48. Ruyter, B.; Bou, M.; Berge, G.M.; Mørkøre, T.; Sissener, N.H.; Sanden, M.; Lutfi, E.; Romarheim, O.-H.; Krasnov, A.; Østbye, T.-K.K. A Dose-Response Study with Omega-3 Rich Canola Oil as a Novel Source of Docosahexaenoic Acid (DHA) in Feed for Atlantic Salmon (Salmo Salar) in Seawater; Effects on Performance, Tissue Fatty Acid Composition, and Fillet Quality. Aquaculture 2022, 561, 738733.
  49. Toyes-Vargas, E.A.; Magallón-Barajas, F.J.; Parrish, C.C. Lipid Variations in Tilapia (Var. GIFT Oreochromis Sp.) Tissues Due to Dietary Replacement of Fish Oil with Camelina Oil (Camelina Sativa). Aquac. Res. 2022, 53, 2819–2832.
  50. Balanuca, B.; Stan, R.; Hanganu, A.; Lungu, A.; Iovu, H. Design of New Camelina Oil-Based Hydrophilic Monomers for Novel Polymeric Materials. J. Am. Oil Chem. Soc. 2015, 92, 881–891.
  51. Li, N.; Qi, G.; Sun, X.S.; Xu, F.; Wang, D. Adhesion Properties of Camelina Protein Fractions Isolated with Different Methods. Ind. Crops Prod. 2015, 69, 263–272.
  52. Li, Y.; Sun, X.S. Camelina Oil Derivatives and Adhesion Properties. Ind. Crops Prod. 2015, 73, 73–80.
  53. Kim, N.; Li, Y.; Sun, X.S. Epoxidation of Camelina sativa Oil and Peel Adhesion Properties. Ind. Crops Prod. 2015, 64, 1–8.
  54. Nosal, H.; Nowicki, J.; Warzała, M.; Nowakowska-Bogdan, E.; Zarębska, M. Synthesis and Characterization of Alkyd Resins Based on Camelina sativa Oil and Polyglycerol. Prog. Org. Coat. 2015, 86, 59–70.
  55. Piravi-vanak, Z.; Azadmard-Damirchi, S.; Kahrizi, D.; Mooraki, N.; Ercisli, S.; Savage, G.P.; Rostami Ahmadvandi, H.; Martinez, F. Physicochemical Properties of Oil Extracted from Camelina (Camelina Sativa) Seeds as a New Source of Vegetable Oil in Different Regions of Iran. J. Mol. Liq. 2022, 345, 117043.
  56. Mališová, M.; Horňáček, M.; Hudec, P.; Mikulec, J.; Slezáčková, M.; Hájeková, E. Preparation and Characterization of K-Loaded Mg/Al Mixed Oxides Obtained from Hydrotalcites for Transesterification of Camelina sativa Oil. Chem. Pap. 2022, 76, 7585–7596.
  57. Arshad, M.K.; Mohanty, A.; Acker, R.V.; Riddle, R.; Todd, J.; Khalil, H.; Misra, M. Valorization of Camelina Oil to Biobased Materials and Biofuels for New Industrial Uses: A Review. RSC Adv. 2022, 12, 27230–27245.
  58. Shonnard, D.R.; Williams, L.; Kalnes, T.N. Camelina-Derived Jet Fuel and Diesel: Sustainable Advanced Biofuels. Environ. Prog. Sustain. Energy 2010, 29, 382–392.
  59. Campbell, M.C.; Rossi, A.F.; Erskine, W. Camelina (Camelina sativa (L.) Crantz): Agronomic Potential in Mediterranean Environments and Diversity for Biofuel and Food Uses. Crop Pasture Sci. 2013, 64, 388.
  60. Gesch, R.W.; Archer, D.W. Double-Cropping with Winter Camelina in the Northern Corn Belt to Produce Fuel and Food. Ind. Crops Prod. 2013, 44, 718–725.
  61. Li, X.; Mupondwa, E. Life Cycle Assessment of Camelina Oil Derived Biodiesel and Jet Fuel in the Canadian Prairies. Sci. Total Environ. 2014, 481, 17–26.
  62. Obour, A.K.; Sintim, H.Y.; Obeng, E.; Jeliazkov, D.V. Oilseed Camelina (Camelina sativa L. Crantz): Production Systems, Prospects and Challenges in the USA Great Plains. Adv. Plants Agric. Res. 2015, 2, 68–76.
  63. Yang, J.; Caldwell, C.; Corscadden, K.; He, Q.S.; Li, J. An Evaluation of Biodiesel Production from Camelina sativa Grown in Nova Scotia. Ind. Crops Prod. 2016, 81, 162–168.
  64. Bacenetti, J.; Restuccia, A.; Schillaci, G.; Failla, S. Biodiesel Production from Unconventional Oilseed Crops (Linum Usitatissimum L. and Camelina sativa L.) in Mediterranean Conditions: Environmental Sustainability Assessment. Renew. Energy 2017, 112, 444–456.
  65. Ahmad, M.; Waraich, E.A.; Hafeez, M.B.; Zulfiqar, U.; Ahmad, Z.; Iqbal, M.A.; Raza, A.; Slam, M.S.; Rehman, A.; Younis, U.; et al. Changing Climate Scenario: Perspectives of Camelina sativa as Low-Input Biofuel and Oilseed Crop. In Global Agricultural Production: Resilience to Climate Change; Ahmed, M., Ed.; Springer International Publishing: Cham, Switzerland, 2022; pp. 197–236. ISBN 978-3-031-14973-3.
  66. Tanwar, B.; Goyal, A. Oilseeds: Health Attributes and Food Applications; Springer: Singapore, 2021; ISBN 9789811541933.
  67. Karvonen, H.M.; Aro, A.; Tapola, N.S.; Salminen, I.; Uusitupa, M.I.J.; Sarkkinen, E.S. Effect of -Linolenic AcidRich Camelina sativa Oil on Serum Fatty Acid Composition and Serum Lipids in Hypercholesterolemic Subjects. Metab.-Clin. Exp. 2002, 51, 1253–1260.
  68. Manninen, S.; Lankinen, M.; Erkkilä, A.; Nguyen, S.D.; Ruuth, M.; de Mello, V.; Öörni, K.; Schwab, U. The Effect of Intakes of Fish and Camelina sativa Oil on Atherogenic and Anti-Atherogenic Functions of LDL and HDL Particles: A Randomized Controlled Trial. Atherosclerosis 2019, 281, 56–61.
  69. Ibrahim, F.; El Habbasha, E.S. Chemical Composition, Medicinal Impacts and Cultivation of Camelina (Camelina Sativa): Review. Int.J. PharmTech Res. 2015, 8, 114–122.
  70. Russo, R.; Reggiani, R. Antinutritive Compounds in Twelve <I>Camelina sativa </I>Genotypes. Am. J. Plant Sci. 2012, 03, 1408–1412.
  71. Ratusz, K.; Symoniuk, E.; Wroniak, M.; Rudzińska, M. Bioactive Compounds, Nutritional Quality and Oxidative Stability of Cold-Pressed Camelina (Camelina sativa L.) Oils. Appl. Sci. 2018, 8, 2606.
  72. Christodoulou, C.; Mavrommatis, A.; Mitsiopoulou, C.; Symeon, G.; Dotas, V.; Sotirakoglou, K.; Kotsampasi, B.; Tsiplakou, E. Assessing the Optimum Level of Supplementation with Camelina Seeds in Ewes’ Diets to Improve Milk Quality. Foods Basel Switz. 2021, 10, 2076.
  73. Nain, S.; Oryschak, M.A.; Betti, M.; Beltranena, E. Camelina sativa Cake for Broilers: Effects of Increasing Dietary Inclusion from 0 to 24% on Tissue Fatty Acid Proportions at 14, 28, and 42 d of Age. Poult. Sci. 2015, 94, 1247–1258.
  74. Russo, R.; Galasso, I.; Reggiani, R. Variability in Glucosinolate Content among Camelina Species. Am. J. Plant Sci. 2014, 05, 294–298.
  75. King, K.; Li, H.; Kang, J.; Lu, C. Mapping Quantitative Trait Loci for Seed Traits in Camelina Sativa. Theor. Appl. Genet. 2019, 132, 2567–2577.
  76. Lokesh, K.; Sethi, V.; Nikolaidis, T.; Goodger, E.; Nalianda, D. Life Cycle Greenhouse Gas Analysis of Biojet Fuels with a Technical Investigation into Their Impact on Jet Engine Performance. Biomass Bioenergy 2015, 77, 26–44.
  77. Masella, P.; Galasso, I. A Comparative Cradle-to-Gate Life Cycle Study of Bio-Energy Feedstock from Camelina Sativa, an Italian Case Study. Sustainability 2020, 12, 9590.
  78. Fröhlich, A.; Rice, B. Evaluation of Camelina sativa Oil as a Feedstock for Biodiesel Production. Ind. Crops Prod. 2005, 21, 25–31.
  79. Ciubota-Rosie, C.; Ruiz, J.R.; Ramos, M.J.; Pérez, Á. Biodiesel from Camelina Sativa: A Comprehensive Characterisation. Fuel 2013, 105, 572–577.
  80. Angelini, L.G.; Abou Chehade, L.; Foschi, L.; Tavarini, S. Performance and Potentiality of Camelina (Camelina sativa L. Crantz) Genotypes in Response to Sowing Date under Mediterranean Environment. Agronomy 2020, 10, 1929.
  81. Zubr, J. Dietary Fatty Acids and Amino Acids of Camelina sativa Seed. J. Food Qual. 2003, 26, 451–462.
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