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بررسی تأثیر سطوح مختلف و دفعات محلولپاشی نانوکود فارمکس بر رشد و نمو و مواد مؤثره بابونه آلمانی (Matricaria recutita L.) Nanochod农场当地种群的不同水平和重复对德国哺乳动物(Matricaria recitita L)生长的影响。
Pub Date : 2015-03-15 DOI: 10.22067/jhorts4.v0i0.45335
سمانه محمدی, مجید عزیزی
In this research, the effect of foliar spraying times and different levels of Farmax® nano fertilizer on morphological characteristic and dry and fresh flower yield, essential oil and chamazulene percentage of chamomile (Matricaria recutita L.) CV. Bodegold was studied. The experiment was factorial in the bacic of randomized complete blocked design (RCBD) with eight treatment and four replications. The treatments included four amounts of nano fertilizer (0, 1, 3 and 5mll) as first factor and two foliar spraying times (tiller stage and 2 after weeks) as second factor. The results indicated that foliar spraying time had a significant effect on plant height, numbers of tiller, total fresh weight plant and dry flower yield. Different of levels Farmax® nano fertilizer had significant effect on majority characteristic. The interaction effect had significant effect on height plant and root and dry flower yield. So, maximum height plant (103.5cm) and dry flower yield (174.38g/m2) were obtained at 2 foliar spraying times and 3ml/l nano fertilizer concentration and maximum height root was obtained at one foliar spraying times and 5 ml/l nano fertilizer concentration, but 2 foliar spraying times and 3ml/l nano fertilizer concentration treatment to be increased on the most of the characteristic especially essential oil percent (0.753 weight percent) but do not have effect significant. The total results showed that 2 foliar sparing times and 3 ml/l nano fertilizer concentration was the best of treatment.
本试验研究了叶面喷施次数和不同水平Farmax®纳米肥对洋甘菊形态特征、干花和鲜花产量、挥发油和chamazulene百分比的影响。简历。对波德戈尔德进行了研究。试验采用随机完全阻断设计(RCBD), 8个治疗组,4个重复。以4量纳米肥料(0、1、3、5ml / l)为第一因子,2次叶面喷施(分蘖期和周后2次)为第二因子。结果表明,叶面喷施时间对水稻株高、分蘖数、总鲜重和干花产量有显著影响。不同水平的Farmax®纳米肥料对大部分性状有显著影响。互作效应对株高、根和干花产量有显著影响。因此,叶面喷施2次,纳米肥浓度为3ml/l时,植株最高高度为103.5cm,干花产量为174.38g/m2,叶面喷施1次,纳米肥浓度为5ml /l时,根系最高高度为174.38g/m2,但叶面喷施2次,纳米肥浓度为3ml/l时,对大部分性状尤其是精油含量(0.753重量%)的提高效果不显著。结果表明,2次叶面保留次数和3 ml/l纳米肥浓度为最佳处理。
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引用次数: 0
Effect of Superabsorbent Application under Different Irrigation Regimes on Photosynthetic Pigments in Cuminum cyminum and its Relation with Seed and Essential Oil Yield 不同灌溉方式下施用高吸水剂对茴香光合色素的影响及其与种子和精油产量的关系
Pub Date : 2015-01-07 DOI: 10.22067/JHORTS4.V0I0.27389
A. Pirzad, R. Darvishzadeh, A. Hassani
Introduction: Cumin, sometimes spelled cummin (Cuminum cyminum L.; Apiaceae), also known as Zeera is native from the East Mediterranean to India. Its seeds are used in the cuisines of many different cultures, and it is also used as a medicinal plant, serving as a digestant, as well as being used to treat anemia and the common cold. Cumin is a drought tolerant plant, has a short growth season of 100 – 120 days, with optimum growth temperature ranges between 25°C and 30 °C. Drought is one of the most important environmental factors that influences seed yield of crop plants in arid and semi-arid regions,through physiological response of plant. To reduce drought stress damages, some synthetic materials like hydroplus superabsorbent polymers, highly hydrophilic due to low cross-links in their structure, can be used to save soil moisture. Thus, superabsorbent polymer may have great potential in restoration and reclamation of soil and storing water available for plant growth and production. Materials and Methods: To evaluate accumulation of photosynthetic pigments and seed yield of cumin, a factorial experiment was conducted based on randomized complete blocks design with three replications at the Research Farm of Urmia University (latitude 37.53° N, 45.08° E, and 1320 m above sea level).- The soil texture of experimental site was clay loam (28% silt, 32% clay, 40% sand) with 22.5% field capacity, 1.54 g/cm3 soil density, and pH 7.6. Treatments were four irrigation regimes (irrigation after 50, 100, 150 and 200 mm of evaporation from class A pan) and different amounts of superabsorbent polymer (0, 60, 120, 180, 240 and 300 kg/ha). To measure the chlorophyll content (Chlorophyll a, b, and total chlorophyll), 0.25 g of grounded leaves were adjusted to 25 ml by distilled water, and 0.5 ml of this solute was mixed with 4.5 ml acetone 80%. The upper zone of centrifuged solution was taken for spectrophotometery at 645nm and 663 nm wavelengths. To measure the yield of cumin seeds, 2 m2 of each plot was harvested and immediately were dried in the shade and at a temperature of 25 ° C. Essential oil, 25 g of powdered seeds in a one-liter flask, was extracted (W/W) by the Clevenger method (Hydro distillation) for 3 hours. Results and Discussion: Analysis of variance showed the significant interaction between the superabsorbent polymer and irrigation on the amount of leaf chlorophyll a, chlorophyll b, total chlorophyll, seed yield, percentage and yield of essential oil. This implies a different physiological response of cumin plant in terms of adding different amounts of superabsorbent and irrigation. Means comparison indicated that the highest concentration of chlorophyll a (0.266 mg/l) and total chlorophyll (0.518 mg/l) were obtained from plants irrigated after 50 mm of evaporation without polymer application. The maximum (0.259 mg/l) and minimum (0.028 mg/l) leaf chlorophyll b belonged to irrigation after 200 mm of evaporation using 60 and 240 kg/ha polymer, r
小茴香,有时拼作cummin (Cuminum cyminum L.;蜜蜂科),也被称为Zeera,原产于东地中海到印度。它的种子被用于许多不同文化的烹饪中,它也被用作药用植物,作为消化剂,以及用于治疗贫血和普通感冒。孜然是一种耐旱植物,生长季节短,为100 - 120天,最适生长温度为25 - 30℃。干旱是影响干旱半干旱区作物种子产量的重要环境因子之一,是通过植物的生理响应来实现的。为了减少干旱胁迫损害,可以使用一些合成材料,如hydroplus高吸水性聚合物,由于其结构中低交联而具有高度亲水性,可以节省土壤水分。因此,高吸水性聚合物在土壤的修复和复垦以及植物生长和生产所需的储水方面具有很大的潜力。材料与方法:在乌尔米亚大学研究农场(北纬37.53°N,东经45.08°E,海拔1320 m),采用随机完全区组设计,采用3个重复的析因试验,研究孜然光合色素积累与种子产量的关系。-试验点土壤质地为粘壤土(粉土28%,粘土32%,砂土40%),田容22.5%,土壤密度1.54 g/cm3, pH值7.6。处理采用四种灌溉方式(在A类蒸发皿蒸发50、100、150和200 mm后灌溉)和不同量的高吸水性聚合物(0,60、120、180、240和300 kg/ha)。为了测量叶绿素含量(叶绿素a、叶绿素b和总叶绿素),将0.25 g磨碎的叶片用蒸馏水调至25 ml,将0.5 ml该溶质与4.5 ml 80%的丙酮混合。分别在645nm和663nm波长处取离心液上区进行分光光度测定。为了测量孜然种子的产量,每块收获2 m2,立即在阴凉处和25°c的温度下干燥。精油,25 g粉末种子,在1升烧瓶中,用Clevenger法(水力蒸馏)提取(W/W) 3小时。结果与讨论:方差分析表明,高吸水性聚合物与灌溉对叶片叶绿素a、叶绿素b、总叶绿素含量、种子产量、挥发油百分比和产量有显著的交互作用。这表明,添加不同量的高吸水性和灌溉对孜然植株的生理反应是不同的。结果表明,在不施用聚合物的情况下,蒸发50 mm后灌溉的植株叶绿素a和总叶绿素浓度最高,分别为0.266 mg/l和0.518 mg/l。叶绿素b最高(0.259 mg/l)和最低(0.028 mg/l)分别属于200 mm蒸发量为60和240 kg/ha的聚合物灌溉。水分充足的植物(蒸发50毫米后灌溉)的种子(1226公斤/公顷)和精油(36.5公斤/公顷)的产量最高,聚合物的产量为60公斤/公顷。将灌溉间隔从50增加到200(50、100、150和200)mm蒸发量,分别需要120、180和120 kg/ha聚合物才能获得最佳孜然产量。随着灌溉距离的增加,孜然植物的精油含量逐渐显著增加,蒸发量可达150 mm,随后是严重的胁迫。与种子产量一样,蒸发量为120公斤/公顷的高吸水性水在蒸发量为50毫米后灌溉的植株精油产量最低(0.9公斤/公顷)(低于蒸发量为200毫米后灌溉的植株)。一般来说,对于水分充足的植株,在蒸发50毫米后用少量高吸水性水(60公斤/公顷)灌溉可获得最大的种子产量和油量。然而,如果没有水,为了获得最佳性能,增加两次灌溉间隔(在蒸发皿蒸发100毫米后灌溉)需要使用120公斤/公顷的聚合物,因为蒸发200毫米后灌溉的精油非常少。但是,如果我们使用更多的高吸水性(300公斤/公顷),从这个灌溉水平获得的精油产量将增加一倍以上。结论:灌溉与高吸水性之间存在显著的相互作用,建议在每个灌溉方案中使用一定数量的聚合物作为最佳水平,从而使最佳高吸水性叶绿素量、种子产量和精油含量影响适当的精油产量。综上所述,在不同的灌溉条件下,高吸水性聚合物的适宜用量是不同的,因此,在控制(无胁迫条件)和中度干旱胁迫条件下,建议分别不超过120 kg/ha和- 300 kg/ha,以产生小茴香植物精油。
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引用次数: 0
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Majallahi Ulumi Baghbani
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