Nutrients Composition of Common Plant Species of Asteraceae in Quetta at Two Growth Stages.
Summary: Wild plants play an important role in non-traditional fodder producing plants. Therefore, eight common plant species of Asteraceae were collected from four different localities of Quetta at two different growth stages viz., vegetative and flowering. The plant material (particularly leaf) was shade dried and ground them into fine powder. Thereafter they were analyzed for mineral nutrients viz., N, P, K, Na, Zn and Mn following standard procedures. Results showed that different plant species at both the growth stages did significantly produced different amount of total mineral nutrients viz. sum of N, P, K, Na, Zn, and Mn. Statistically maximum amount of total mineral nutrients (65.66 mg g-1) were produced by Seriphidium quettense (Podlech) Ling, Bull. Relatively minimum (45.02 mg g-1) amount of the total mineral nutrients was observed on Achillea wilhelmsii C. Koch.
This amount for the remaining six plants was in an order of Hertia intermedia Boiss > Echinops griffithianus Boiss > Carthamus oxycantha M. Bieb > Centaurea iberica Trev.ex Spreng > Acroptilon repens (L.) Hidalgo > Conyza bonarensis (L.) Cronquist, respectively. Results also showed that generally vegetative growth stage produced 7.74% greater amount of total mineral nutrients overall in all the studied Asteraceae species [except Seriphidium quettense (Podlech) Ling, Bull] over than their respective reproductive growth stage. Statistically overall maximum increase (13.84%) in mineral nutrients was produced by Achillea wilhelmsii C. Koch. While minimum (1.81%) for the same is recorded for Centaurea iberica Trevir. ex Spreng.
Therefore, based on the highest concentration of total mineral nutrients, Seriphidium quettense (Podlech) Ling, Bull; Hertia intermedia Boiss, and Echinops griffithianus Boiss of Asteraceae are respectively recommended as forage and fodder for feeding of ruminants particularly at their vegetative growth stage.
Keywords: Mineral Nutrients, Asteraceae, Vegetative, Flowering; Reproductive, Quetta.
Area wise Balochistan is the largest province representing 44% of the total land cover of Pakistan. Quetta is its capital district, which lies between latitude 30Adeg - 03' and 30Adeg - 27'N and longitude 66Adeg - 44' and 67Adeg-18'E. Mountains are the general character of this district. Fairly arid climate prevails in the Quetta valley. The district is situated at an altitude of 1652 m above sea level, lies at the mouth of Bolan Pass. It has three large craggy mountains. Chiltan, Zarghoon and Koh-e-Murdar, that seems to brood upon this pleasant town. The weather is extremely dry. The winter is very cold, and its minimum temperature ranges between -7 to - 17AdegC. Summer is comparatively mild and the maximum temperature ranges between 32 to 35AdegC. July is generally the hottest month .
However, rangelands of the province have been degrading very fast by overgrazing and removal of vegetation for fuel purposes. Local plant species have evolved under the prevailing stresses of the Quetta region and have the ability to exploit natural resources on account of limited availability of alternate resources. In arid and semi arid rangelands (including Quetta), re-establishment of important native plant species is vital to maintain diversity, structure, function, and stability of the landscape. Seedling growth rate in their natural environment reflects potential of their sustainability in their native or local habitat. Germination of seeds, their establishment and survival are important parameters of colonization and population dynamics of plants . Seeds are a source of C, N and P nutrients for the growing seedling. Seeds N and P are more important than seed C in accounting for seedling mass in 85% studied plants.
In nutrient and water limited environments, large seeds routinely provision the seedling with N and P that enhance C-fixation and thus general growth in the first wet season. This system is so effective that growth response to soil nutrients may be negligible in first year seedling arising from seeds > 15mg mass, 5mg N content and 1.6mg P contents . Seed germination and growth of desert plants are greatly depending upon seedbed characteristics especially soil moisture contents , and temperature . In arid environment, any microsite that prevents desiccation might be a suitable site for seedling survival .
Due to its peculiar geographical position, Pakistan harbors a great miscellany of flora. More than 6000 vascular plant species occur in this region , out of which 5,600 species have been described to date in the Flora of Pakistan, representing 22 families and about 150 genera . In Balochistan 177 plant species belonging to family Asteraceae has been reported. Seriphidium quettense belonging to the plant family Asteraceae is the most prevalent plant species of Quetta specifically and Balochistan generally. Research studies revealed that there are 4 main plant communities in the study area viz., Artimisia herba-alba, Artimisia - Poa - Taeniatherum, Bromus - Prunus and Artimisia - Sophora which are comprised up of 112 plant species .
While common dominant plants of Asteraceae, found in Quetta are Achillea welhemsii C. Koch, Acroptilon repens (L.) Hidalgo, Carthamus oxycantha M. Bieb, Centaurea iberica Trev.ex Spreng, Conyza bonarensis (L.) Cronquist, Hertia intermedia Boiss, Echinops griffithianus Boiss, Seriphidium quettense (Podlech) Ling, Bull, Cousinia heterophylla Boiss, Lactuca persica Boiss, Pulicaria angustifolia DC and Sonchus asper L. [10, 11, 12]. Seriphidium quettense (Podlech) synonym Artemisia quettensis is a dominant shrublet in Hazarganji, Balochistan, Pakistan . This shrub provides forage to small ruminants when other range species produce limited dry matter particularly under drought conditions. Likewise, this shrub provides many benefits to humans and animals including feed for livestock and wildlife, erosion control and industrial products .
Genus Seriphidium, due to its high number of species, ecological and economic importance, has been the object of a diversity focused studies . Presently, 38 plant species of Seriphidium have been identified and botanically reported in Pakistan, mainly in arid and semiarid areas of Balochistan, Khyber Pakhtunkhwa (KPK), Northern Punjab and Kashmir forming an important component of Artemisia steppes . Seriphidium is a widespread and varied genus of the family Asteraceae with great therapeutic and economic importance. It has greater than 500 species throughout the globe (the number varies depending on the authors .
Plant nutrition is traditionally treated as two separate topics: Organic nutrition and Inorganic nutrition. Organic nutrition focuses on the production of carbon compounds, specifically the incorporation of carbon, hydrogen and oxygen via photosynthesis, while inorganic nutrition is concerned primarily with the acquisition of mineral elements from the soil. Most plants require a relatively small number of nutrient elements in order to successfully complete their life cycle. Those that are required are deemed to be essential nutrient elements . The essential nutrients are generally classed as either macronutrients or micronutrients.
Distinction between macro and micro nutrients simply reflects the relative concentrations found in tissues or required in nutrient solutions and does not infer importance relative to the nutritional needs of the plants. H, C, O, N, P, K, Ca, Mg, S are macronutrients and Cl, B, Fe, Mn, Zn, Cu, Ni, Mo are listed as micronutrients or trace elements. The macronutrients contribute to over 95% of a plant's entire biomass on a dry matter weight basis. Whereas micronutrients are present in plant tissue in quantities measured in parts per million (ppm), ranging from 200 ppm or less than 0.02% dry weight [16, 17]. Wild plants play an essential role in non-traditional fodder producing plants. These plants are rich with their nutritive values are their water requirements are low . The mineral nutrition is an important aspect as it plays an essential role in organism's life healthy growth. Such type of mineral is easily available in wild edible plants .
In addition to some earlier research carried on this topic [20, 21], recently researchers have investigated the nutritional value of non-traditional wild plants as renewable resources for raw materials [22, 23, 24, 25].
Many efforts have been made to establish the potential benefits of waste land herbs and shrubs. These have long been considered as an important source of nutrition for gazing animals in Pakistan, especially in those areas having pronounced dry season like Quetta . Herbs, shrubs and trees are generally not only serves as food, fodder and medicine, but also provide shade and shelter for human beings and animals. They all provide forage for livestock through out the globe, when the values of grasses are below the minimum requirements for the maintenance of livestock. In the arid and semi-arid areas of the Mediterranean regions fodder herbs and shrubs, as forage plants can fill the gap of feed livestock during harsh environmental conditions. The presence of large quantity of minerals in fodder shrub leaves may not ensure the full nutritional diet as preferred by the animals .
The concentration of mineral elements in forage depends upon the interaction of a number of factors viz. soil, plant species, maturity stage (i.e., vegetative/reproductive), yield and existing climate . Differences in mineral composition are reported by many researchers [29, 30, 31]. Minerals maintain the constituents of body fluid and tissue electrolytes. According to  plant species of Balochistan are deficient in total digestible nutrients with respect to animal requirement. Previously research was conducted only on quantifying the crude protein of range forages of Balochistan [26, 33], but limited research work is carried out on quantifying the seasonal variation of the nutrients. However, this is important to know the macro and micro-nutrients status of those rangeland plants on which the animals are grazing .
The main objective of the present study is to know that which plant species of Asteraceae and at which growth stage of life it can produce the highest concentration of total mineral nutrients (i.e. N, P, K, Na, Zn and Mn), which can thereafter be recommend as forage and fodder for feeding of ruminants, because these macro and micronutrients are mainly involved in the growth and development of ruminants. Ca, Mg, S, Mo, Cu, and Fe are also important macro and micro-nutrients, but due to lack of analytical facility they were not included in the present study.
In present study eight common plant species of family Asteraceae (Achillea wilhelmsii C. Koch, Acroptilon repens (L.) Hidalgo, Carthamus oxycantha M. Bieb, Conyza bonarensis (L.) Cronquist, Echinops griffithianus Bioss, Centaurea iberica Trevir. ex Spreng, Hertia intermedia Boiss and Seriphidium quettense (Podlech) Ling, Bull.), were randomly collected for 2 consecutive years from 4 different localities of Quetta viz. University of Balochistan campus, Wali Tangi, Hanna Urak, and Hazar Ganji. Each locality was considered as replicate. The selected plants were collected under technique of SRS (Simple Randomized Sampling) at two respective stages of plant development i.e., vegetative and flowering stages. Each plant sample was collected thrice. Sampling was done in year 2009 and 2010 and identification of plants was made with the help of Flora of Pakistan .
The voucher specimens were prepared and submitted to the Herbarium of Botany Department, University of Balochistan, Quetta. The collected plant samples (particularly leaf) were then shade dried in Laboratory and ground them in fine powder form. However, the leaves of Achillea and Echinops were hard and spiny so dried their leaves along with twigs. This powder was then kept in glass jars and used for the quantitative analyses of various macro and micro-nutrients like N, P, K, Zn, Mn and Na.
Digestion: Digestion of plant samples was done by mixing 2g plant powder in 3mL perchloric acid and 10mL nitric acid (HNO3). Then mixed it well and kept in digestion unit at medium heat for 30 minutes until liquid became transparent and powder fully dissolved. An aliquot 2mL of this sample was mixed with distilled water to make volume up to 100mL. And then each sample was used for quantification of the following different nutritional elements.
Nitrogen (N): Nitrogen was quantified by adopting the procedure of . Pipette out about 50ml of aliquot diluted to 50mL with distilled water into a 125mL Erlenmeyer flask. Now neutralized boric acid absorbing solution by adding 2mL Nessler reagent. Mixed the flask thoroughly after putting cap and rubber stopper. Let the solution stand for 30 minute to develop color. Distilled was used as blank at 425nm wavelength. Read the nitrogen concentration in mg g-1 from standard calibration curve. UV-Vis spectrophotometer (Model 6505, Jenway Ltd., Feisted, Dunmow, Essex, UK) was used for the purpose.
Sodium (Na) and Potassium (K): These two major essential macronutrients were analyzed manually on Flame Photometer (JENWAY PFP 7) for their quantitative determinations.
Phosphorus (P): Phosphorus was quantified by following the procedure of . Stock solutions of phosphorus (100ppm) was made by dissolving 0.4394g of potassium dihydrogen orthophosphate in 500mL beaker and transferred to a 1L volumetric flask to make the volume upto to 1L by distilled water. Then 10ppm of P was made by diluting 2mL of 100ppm stock solution to 20mL using distilled water. For calibration, standards were made up in 25ml volumetric flasks. Pathlength was 1cm and 5cm for 0.15-1.0 ppm and for 0.01 to 0.25ppm phosphorus, respectively. An aliquot of sample was pipetted into 25mL volumetric flask. Three 3 drops of 2, 4-DNP were added, then 5N HCl was added to make solution clear and turned yellow. The pH was adjusted 3 by adding 5N HCl. About 4mL of reagent solution freshly prepared by dissolving 12g ammonium paramolybdate in 250 mL distilled water x dissolving 0.291g of potassium antimony tartrate in 100mL distilled water.
The reaction was mixed with 5N H2SO4 to 1000mL, then to 2000mL. Now 1.32g ascorbic acid was added into 250mL of above mentioned freshly prepared solution to a certain volume with distilled water. Fifteen minutes were allowed for blue color development and its absorbance was recorded against blank at 880nm by using UV/Vis-spectrophotometer.
Zinc and Manganese: They were analyzed on (SOLAAR AA Spectrometer) Atomic Absorption spectrometer following "AA Spectrometers Methods Manual". Each of the individual mineral nutrients was calculated with the following formula:-
N (%) = Mineral nutrients at vegetative or reproductive growth stage X 100 / Total nutrient contents at both vegetative and reproductive growth stages
The P, K, Na, Zn, and Mn contents were also calculated by the above mentioned formula.
Statistical analysis: The observed data were analyzed by using "STATISTIX 9.0 Version" computer software. Initially, data was submitted to linear model for analysis of variance (ANOVA). Furthermore LSD was computed for factorial design (2 factors). As software is designed for agricultural sciences, inbuilt probability level was 5%. Level of significance was recorded for all eight plant species and also for the two growth stages. The interaction between these two factors (growth stage and plant species) was also established.
Results and Discussion
Results of quantitative determination deciphered that mineral nutrient viz., N, P, K, Zn, Mn, and Na in all members of Asteraceae as well as at both growth stages (except Na) were found significantly different (P0.05) from trees studied. While low sodium content was reported from grasses and legumes (0.09 and 0.06%) as reported by . High sodium content was found during winter season, maximum amount (0.42%) of dry matter (DM) was observed in C. ambigua from Hazargangi during this season. High (0.32%) DM was found in Prunus eburnea and Sophora mollis during winter season from Hazargangi. Lowest amount (0.3%) DM was found in Perpvskia abrotanoides from Zarghoon during spring season . Their work supports the present results. As being beneficial element, Na was present in very low concentrations as compared to other macro and micro nutrients but being helpful in stress tolerance; its level was comparatively high when plant was at flowering.
Results are also in agreement with statement of , who reported that flavonoids, a group of polyphenolic compounds that include tannins are also compounds that chelate metals such as iron and zinc, and reduce the absorption of these nutrients. They also inhibit digestive enzymes and may precipitate proteins.
On the basis of obtained results, it can be concluded that both plant species and growth stages did significantly produce high amount of total mineral nutrients viz. N, P, K, Na, Zn, and Mn. Statistically maximum amount of total mineral nutrients were produced by S. quettense. While minimum for the same was achieved by A. wilhelmsii. However, remaining six plants were in order of H. intermedia > E. griffithianus > C. oxycantha > C. iberica > A. repens > C. bonarensis. It can also be concluded that generally vegetative growth stage comparatively produced greater amount of total mineral nutrients (except S. quettense) over than their respective reproductive stage. Statistically maximum increase in total amount of mineral nutrients percentage was produced by A. wilhelmsii. While minimum for the same is recorded for C. iberica.
Therefore, based on the highest amount of total macro and micro mineral nutrients S. quettense, H. intermedia, and E. griffithianus of Asteraceae family at their vegetative growth stage are respectively recommended for feeding of ruminants.
1. Anonymous, Census report of Kalat and Khuzdar districts, Balochistan province. Population census organization, Statistic division Govt. of Pakistan, Islamabad (1998).
2. O. Erikson and J. Ehrlen, Seed and microsite limitation of recruitment in plant populations. Oecol., 91, 360 (1992).
3. B. B. Lamont and P. K. Groom, Seeds as a source of Carbon, Nitrogen, and Phosphorus for seedling establishment in temperate regions: A Synthesis. Amer. J. Plant Sci., 4, 30 (2013).
4. M. K. Owens and B. E. Norton, Interactions of grazing and plant protection on basin big sagebrush (Artemisia tridentata ssp. tridentata) seedling survival, J. Range Manag., 45, 257 (1992).
5. H. Z. Ren, J. P. Goa, L. G. Li, X. L. Cai, W. Huang, D. Y. Chao, M. Z. Zhu, Z. Y. Wang, S. Luan and H. X. Lin, A rice quantitative trait locus for salt tolerance encodes a sodium transporter, Nature Genet., 37, 1141 (2005).
6. J. L. Harper, Population Biology of Plants. Academic Press, New York (1977).
7. R. R. Stewart, An annotated catalogue of Vascular plants of West Pakistan and Kashmir. Karachi: Fakhri Printing Press Pakistan (1972).
8. E. Nasir and S. I. Ali, Flora of Pakistan. Islamabad and Karachi: National Herbarium/ NARC and Department of Botany, University of Karachi, Karachi Pakistan (1970-95).
9. Q. Marwat, M. Nisar and F. Hussain, Vegetation studies of Chiltan National Park Hazarganji, Pak. J. Agric. Res., 13, 71 (1992).
10. A. Ghafoor, Flora of Pakistan. Asteraceae (1)- Anthemideae. In: S. I. Ali and M. Qaiser, (Eds.) Department of Botany, University of Karachi, Karachi-Pakistan (2002).
11. M. K. Shareeque and S. M. Irshad, A Revised Working List of the Flowering Plants of Balochistan. Johor Printers. Hyderabad. Pakistan (2005).
12. R. B. Tareen, T. Bibi, M. A. Khan, M. Ahmad and M. Zafar, Indigenous knowledge of folk medicine by the women of Kalat and Khuzdar regions of Balochistan, Pakistan, Pak. J. Bot., 42, 1465 (2010).
13. C. M. McKell, The Biology and Utilization of Shrubs, Academic Press, San Diego, California, USA (1989).
14. J. Valles, M. Torrell, T. Garnatje, N. Garcia-Jacas, R. Vilatersana and A. Susanna, Genus Artemisa and its allies, phylogeny of the subtribe Artemisiinae (Asteraceae, Anthemadea) based on nucleotide sequences of nuclear ribosomal DNA internal transcribed spacers (ITS). Plant Biol., 5, 274 (2003).
15. E. D. McArthur, A. C. Blauer, A. P. Plummer and R. Stevens, Characteristics and hybridization of important intermountain shrubs III. Sunflower family. USDA For. Serv. Res. Pap. INT-220. 82pp. Intermt. For. And Range Expt. Sta. Ogden, Utah (1979).
16. W. G. Hopkins and N. P. A. Huner, "Introduction to Plant Physiology". 3rd Edi. John Wiley and Sons, Inc. 111 River Street, Hoboken, NJ07030 (2004).
17. L. Taiz and E. Zeiger, "Plant Physiology." 3rd Edition, Sinauer Associates Inc., Sunderland, 555 (2002).
18. Y. A. El-Amier and T. J. Abdullah, Evaluation of nutritional value for four kinds of wild plants in northern sector of Nile Delta, Egypt, Open J. Plant Sci., 5, 393 (2015).
19. V. Rathod, S. Mahadkar and S. Valvi, Nutritional assessment of some selected wild edible plants as a good source of mineral, Asian J. Plant Sci. and Res., 2, 468 (2012).
20. N. I. Ashour, M. S. Serag, A. K. Abd-El-Halemm and B. B. Mekki, Forage production from three grass species under saline irrigation in Egypt, J. Arid Environ., 37, 299 (1997).
21. A. S. Eldin, Nutrient status of vegetation of the Elba nature reserve, J. Union Arab Biolg. Cairo, 6, 73 (1998).
22. R. Ramachurum, Z. B. Dullul, A. Ruggoo and J. Ragoo, Effects of feeding star grass (Cynodon plectostachyus) on growth and digestibility of nutrients in the domestic Rabbit, Live Stock Research for Rural Development, University of Mauritius, Reduit, (2000).
23. F. F. El-Halawany, Characterization of the wetlands habitat, alongside the Fish farm in the north Nile Delta Egypt, Pak. J. Agric. Sci., 5, 626 (2002).
24. I. A. Mashaly, F. F. El-Halawany, M. E. Abu-Ziada and M. Abdel-El-Aal, Economic potentialities of some wild flora in Dakahlyia Governorate, Egypt, J. Biol., 36, 1 (2009).
25. Y. A. El-Amier and A. A. Ejgholi, Fodder potentialities of three halophytes naturally growing in Egypt, J. Environ,. Sci., (Mansoura University) 43, 647 (2014).
26. E. C. Lefroy, P. R. Dann, J. H. Wildin, R. N. Wesley-Smith and A. A. Mc Gowan, Trees and Shrubs as sources of fodder in Australia. Agroforest. Syst., 20, 117 (1992).
27. Z. I. Khan, M. Ashraf, K. Ahmad, L. R. McDowell and E. E. Valeem, Transfer of magnesium from soil and forage to goats grazing in a semiarid region of Pakistan: Influence of seasons and sampling periods, Pak. J. Bot., 40, 2127 (2008).
28. L. R. McDowell, J. H. Conrad, G. L. Ellis and J. K. Loosli, Minerals for grazing ruminants in tropical regions. Anim. Sci. Deptt. Univ. Florida, Gainesville, Florida. USA. (1983).
29. E. J. Underwood, The Mineral Nutrition of Livestock. 2nd Ed. Commonwealth Agricultural Bureau, London (1981).
30. J. A. Gomide, C. H. Noller, G. O. Mott, J. H. Conrad and D. L. Hill, Mineral composition of six tropical grasses as influenced by plant age and nitrogen fertilization, Agron. J., 61, 120 (1981).
31. Z. I. Khan, M. Ashraf, K. Ahmad, I. Mustafa and M. Danish, Evaluation of micro minerals composition of different grasses in relation to livestock requirements, Pak. J. Bot., 39, 719 (2007).
32. Anonymous, Food and Agriculture Organization. TCP/PAK/0107 FAO, Technical Cooperation Program, Pakistan (1983).
33. A. Wahid, Dietary Composition and Nutritional Status of Sheep and Goats Grazing Two Rangeland Types in Balochistan, Pakistan. PhD Dissertation, Oregon State University, Corvallis, Oregon, USA (1990).
34. L. R. McDowell, Trace element supplementation in Latin America and the potential for organic selenium. In: Biotechnology in the feed Industry. Proc. Alltech's 13th Ann. Symp., pp: 389, Alltech, Inc., U.S.A (1997).
35. S. I. Ali and M. Qaiser (eds), Flora of Pakistan, Department of Botany, University of Karachi, Karachi Pakistan (1995-2004).
36. D. R. Keeney and D. W. Nelson, Nitrogen-Inorganic Forms. pp. 643 (1982).
37. J. Murphy and J. Riley, A modified singlesolution method for the determination of phosphate in natural waters, Anal. Chim. Acta. 27, 31 (1962).
38. A. K. K. Achakzai, A. Masood and Mujeeb-ur-Rahman, Study of polyphenols at vegetative and reproductive stages of eight common plant species of asteraceae found in Quetta, J. Chem. Soc. Pak., 39, 1068 (2017).
39. G. Jan, M. A. Khan, M. Ahmad, Z. Iqbal, A. Afzal, M. Afzal, G. M. Shah, A. Majid, M. Fiaz, A. Waheed and F. Gul, Nutritional analysis, micronutrients and chlorophyll contents of Cichorium intybus L., J. Med. Plant Res., 5, 2452 (2011).
40. A. Viksna, E. Selin-Lindgren and P. Tandzenicks, 2001. X-Ray Spectron, 30, 260 (2001).
41. G. R. Beecher, An overview of dietary flavonoids nomenclature, occurrence and intake, J. Nutr., 133, 324 (2003).
42. M. A. Badri and A. I. Hamed, Nutrient value of plants in an extremely arid environment (Wadi Allaqi Biosphere Reserve, Egypt), J. Arid Environ., 44, 347 (2000).
43. D. J. Minson, Report Commonwealth Scientific and Industrial Research Organization. St. Luci, Queensland, Australia pp. 51 (1990).
44. Nasrullah, M. Niimi, R. Akashi and O. Kawamura, Nutritive evaluation of forage plants grown in South Sulawesi, Indonesia II. Mineral Composition, Asian-Australasian J. Animal Sci., 17, 63 (2004).
45. M. A. Zaidi, G. Saheen, N. Jehan, A. Mansoor and A. Yousafzai, Elemental composition of some arid environmental fodder and medicinal plants of Quetta, Balochistan, J. Chem. Soc. Pak., 32, 71 (2010).
|Printer friendly Cite/link Email Feedback|
|Publication:||Journal of the Chemical Society of Pakistan|
|Date:||Aug 31, 2018|
|Previous Article:||Corrosion - Occurrence and Prevention.|
|Next Article:||In vitro Antioxidant and Chromatographic Quantification of Supercritical Fluid Extracts Obtained from Coriander (Coriandrum sativum L.).|