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Radwan, F., Abido, A., El-Mohrouk, E., Khashira, L. (2015). Effect of Organic, Bio- and Chemical Fertilization on Vegetative Growth and Chemical Composition of Dill Plants )Anethum graveolens, L). Journal of the Advances in Agricultural Researches, 20(4), 654-663. doi: 10.21608/jalexu.2015.161630
Fathy Radwan; Ali Abido; Elsaid El-Mohrouk; Lutfia Khashira. "Effect of Organic, Bio- and Chemical Fertilization on Vegetative Growth and Chemical Composition of Dill Plants )Anethum graveolens, L)". Journal of the Advances in Agricultural Researches, 20, 4, 2015, 654-663. doi: 10.21608/jalexu.2015.161630
Radwan, F., Abido, A., El-Mohrouk, E., Khashira, L. (2015). 'Effect of Organic, Bio- and Chemical Fertilization on Vegetative Growth and Chemical Composition of Dill Plants )Anethum graveolens, L)', Journal of the Advances in Agricultural Researches, 20(4), pp. 654-663. doi: 10.21608/jalexu.2015.161630
Radwan, F., Abido, A., El-Mohrouk, E., Khashira, L. Effect of Organic, Bio- and Chemical Fertilization on Vegetative Growth and Chemical Composition of Dill Plants )Anethum graveolens, L). Journal of the Advances in Agricultural Researches, 2015; 20(4): 654-663. doi: 10.21608/jalexu.2015.161630

Effect of Organic, Bio- and Chemical Fertilization on Vegetative Growth and Chemical Composition of Dill Plants )Anethum graveolens, L)

Article 7, Volume 20, Issue 4, December 2015, Page 654-663  XML PDF (119.07 K)
Document Type: Research papers
DOI: 10.21608/jalexu.2015.161630
View on SCiNiTO View on SCiNiTO
Authors
Fathy Radwan1; Ali Abido1; Elsaid El-Mohrouk2; Lutfia Khashira3
1Plant Production Dept., the Faculty of Agriculture (Saba- Basha), Alex. Univ., Egypt.
2Hort. Dept., the Faculty of Agriculture, Kafr El-Sheikh Univ., Egypt
3Hort. Dept., the Faculty of Agriculture, Kafr El-Sheikh Univ., Egypt.
Abstract
Anethum graveolens (Dill) is one of the most important pharmaceutical plants of Fam. Apiaceous on most addition, fertilization is one of the productivity of the given plant their fine,   Two field experiments were conducted at the experimental farm of the Faculty of Agriculture (Saba-Basha), Alexandria University during both seasons, 2013/2014 and 2014/2015 to study the effect of vegetative growth, chemical composition of dill (A. graveolens). The applied experiment design was randomize complete blocks design with three replicates. The main results stated that (1) the fertilization treatments differently, affected the mean values of all studied characters, and differently affected the mean value of all studied characters.(2) the application of 5m3of organic manure + A-Mycorrhizal,  significantly resulted in increased plant height, fresh and dry weight as well as chlorophyll a and b contents, chemical composition of (N,P and K%) and Vitamin C content, as well as essential oil percentage. The conclusion from the present investigation revealed that the application of 5m3 organic manure + bio- fertilization (Mycorrhizal) led to the highest growth characters and chemical composition of dill plants.
Keywords
Organic fertilizer; biofertilizer; vegetative growth; chemical composition
Main Subjects
Crops and quality; Plant pest management
Full Text

Introduction

Anethum graveolens L. (Dill) fam: Apiaceaeis one of the important pharmaceutical plants the part used of dill is the herb produced from the whole over ground part of the plant, the seeds. Flowering top, or leaves combine well with a variety of foods. Dill seed oil is used as a flavoring agent by food industries before the introduction of the now much more popular dill herb oil (Rashed, 2002).

 

Fertilization is one of the most important factors- limiting- the productivity of plants, the intensive use of expensive mineral fertilizers, in-recent years; results in environmental pollution problems. However, chemical fertilizers, at extremely high rates for a long period, decreased the potential activity of microflora and the stability of soil organic matter (Hussein, 1995). Additionally, organic manures are in the form of compost or animals manures.

Farmyard manure (FYM) and green manure (organic materials) are generally added to soils to improve their physical and chemical properties. They enhance the soil fertility by their composition of macro- and microelements, amino and organic acids, sugars and organic matter (Hammam, 1996). Furthermore bio-fertilization is an important factor being used to produce products without some mineral fertilizer that cause environmental pollution problems, and high rates of it; lead to decrease the potential activity of microflora and the mobility of organic matters. Hence, the inoculation of dill seeds with A-Mycomhizal was found to be capable of fulfilling the requirements of N content in the plant and induce pronounced increases in plant growth and biological yield of dill and other crops (Harridy and Amara, 1998; Gad, 2001;Rashed, 2002 and Mohamed and Abdou, (2004)

This research, however, is an attempt to find out the best fertilization treatments (organic, bio- and chemical fertilization) on vegetative growth and chemical composition of dill plants (Anethum graveolens, L.).

Materials and Methods

Two field experiments were carried out at the Experimental farm of the Faculty of Agriculture (Saba- Basha), Alexandria University, at Abees region, Alexandria, Egypt, during both growing seasons of 2013/2014 and 2014/2015 to study the effect of organic, bio and chemical fertilization on vegetative growth and chemical composition of Anethum gravelens, L. (dill) Plants. The experimental design was randomized complete block design with three replicates. The dill seeds were sown on November 10th and 15thduring both growing seasons. The plots area of each was 4 square meters (2.0 x2.0m2) with 3 rows; the distance between the rows was 50cm and 10cm between plants.

 

The chemical fertilizers as ammonium sulphate (20.5%,N), calcium superphosphate (15.5,% P2O5) and potassium Sulphate were applied (48% K2O) at the rates of (100, 100 and 50kg/fed, respectively), which are the recommended dose. The used bio-fertilization of seed treatment with A-Mycomhial spores, A-Mycorrhizal inoculation was prepared and added as described by Radwan (1996). local strain of Glomus macrocarpum was obtained from Plant Production, Dept. Fac. of Agric. (Saba-Basha), Alexandria Univ., Alex., Egypt. The organic fertilization (Sheep manure) was applied at the three rates of 5,10 and 15m3/fed, which were applied through the soil preparation before sowing. The recommended doses of NPK were divided in two equal parts, the first one was applied one month after sowing and the second one was applied after both irrigations.

The tested treatments were conducted as follows:-

 

T1 : NPK-control (100: 100: 50 kg/fed, respectively)

T2 : 5m3 organic manure/fed

T3 : 10m3  organic manure/fed

T4 : 15m3 organic manure/fed

T5 : Mycorrhizae

T6 : 5m3 organic + Mycomhizae

T7 : 10 m3 organic + Mycomhizae

T8 : 15 m3 organic + Mycomhizae

T9 : ½ NPK + Mycomhizae

T10 : ½ NPK + Mycomhizae + 10m3 organic manure

The physical and chemical characteristics of the experimental soil, and the used sheep manure compositions are given Tables (1 and 2). The soil was analyzed according to be methods described by Pageetal. (1982).

 

Table (1).The physical and chemical properties of the experimental soil in 2014/2015 and 2015/2016 seasons.

 

Soil properties

Value

2013/2014

2014/2015

Particle size distribution (%)

Sand

Silt

Clay

Soil Mixture

 

15.70

41.30

43.00

Clayloam

 

14.90

42.10

43.00

Clay loam

Chemical properties

pH (1 : 1)

EC (1 : 1),dS/m

Soluble cations (1 : 1) (Cmol/Kg soil)

 K+

 Ca2+

 Mg2+

 Na+

Soluble anions (1 : 1) (Cmol/kg soil)

CO=3 + HCO-3

CL-

SO=4

Calcium carbonates(%)

Organic matter (%)

Total Nitrogen (%)

Available phosphorus (mg/kg)

Available K (mg/kg)

 

7.80

2.30

 

1.00

4.25

3.30

8.30

 

2.80

11.50

0.50

7.70

1.00

0.49

3.90

162.30

 

7.90

2.20

 

0.98

4.30

3.20

8.20

 

2.70

11.70

0.49

7.80

0.90

0.50

4.10

171.10

Also, the chemical analysis of the organic manure was carried out according the method of Jackson (1967).


 

Table (2). Analysis of the applied organic manure (sheep manure).

 

pH

7.50

Organic matters (OM,%)

31.72

Organic carbon(OC,%)

18.40

Total N (%)

2.30

Total P (%)

1.20

Total K (%)

1.50

C : N ratio

8 : 1

 

At harvest dates of February 8 and 10 during both seasons, guarded plants were, randomly, taken from each plots and the following characteristics were recorded:

1-  Plant height (cm)

2-  Fresh and dry weights of aerial parts /plant

3-  Chlorophyll (a) and (b) mg/g fresh weight were determined in fresh herbs samples of the fifth leaf from top at harvest and after 3 days for dill using the method described by Moran (1982).

4-  The essential oil percentage was determined in the dried herb according to British pharmacopoeia (1963).

5-  Phosphorus was determined colorimetrically using the method described by Jackson (1967) and potassium was estimated using flame photometer method according to Richards (1954).

6-  Vitamin (C) content was determined in filtered juice samples and expressed as a ascorbic mg acid /100 ml/fresh juice as described by A.O.A.C. (1965)

7-  The N,P and K contents were determined in the acid digested solution which was prepared according to Hack et al., (1985) using mixture of  hydrogen peroxide and sulfuric acid ( 4 : 10).

8-  Element extraction with made on a known weight of dried samples (0.2 mg).

 

The obtained data, statistically, analyzed using ANOVA and L. S.D. values were calculated to test the differences between means of the studied treatments according to Gomez and Gomez (1984).

 

Results and Discussion

I. Vegetative growth

The obtained results presented in table (3) cleared that fertilizer treatments exhibited a significant effect on all estimated traits during both seasons. Application of T6 treatment (5m3 height organic manure /fed + A-Mycomhizal) significantly, increased plant height (cm), fresh weight (g), dry weight (g) in both seasons. It could be concluded that this positive effect on growth characters in response to sheep manure levels, may be attributed to increasing meant ration in plant tissues (Opera and Sigebu, 1996). Also, Inoculation A-mycomhizal may increase the synthesis of endogenous phytohormones, i.e. IAA, GAs and CKs which play an important role in formation of a big active root system which allow more nutrients uptake. The previous results agree, more or less, with the findings of Gad (2001) on Anethum gravolens, Abdel –latif (2002) on Caruimcarvi, Kandeel et al., (2001) and Mohamed and Abdu (2004) on Foeniculum vulgare.

 

II. Chlorophyll and Vitamin C Contents

Data in Table (4) showed that the treatment (T6) application 5m3Organic manure + brofertilizer (Mycomhizal) resulted in the highest Chlorophyll a, b and Vitamin C content, as compared to the other treatments in both seasons. The least Chlorophyll a, b and Vitamin C contents was obtained with application of 1/2 NPK +Mycomhizal + 10m3 (26 and 27mg/g fresh weight) in chlorophyll a, (11.72 and 11.90 mg/g fresh weight)in chlorophyll b and (65.58 and 66.10mg/100ml juice) for Vitamin C content in both season, respectively.

 

The increase in chlorophyll (a) by using 5m3 Organic manure and Mycomhizal (biofertilizer) may be due to Mg element from organic fertilizer, also microbiological processer can change unavailable forms of nutrients into available ones in absence of chemical fertilization (Subb Rao, 1982) Also, the addition of 5m3 organic manure + Mycomhizal to the soil increased Vitamin (C) content in the plant juice. This may be due to the increment of biological. Which processes which help in solubilization of mineral nutrient Synthesis of Vitamins, amino aceds auxins and gibberellins, which stimulate growth as well as the Vitamins contents of juice (Sprenat, 1990). These results are similar to those of Hammam (1996) and Gomaa and Abo Aly (2001) in anise plants.

III. Chemical composition and essential Oil

The data in Table (5) showed that all treatments of fertilization affected chemical composition (N, P and K%) and oil essential (%)  content in both seasons. It is clear from the obtained data, that the highest mean values of chemical composition (N, P and K%) and oil essential (%). content, resulted from the treatments of (T6) [5m3] organic  manure /fed + A-Mycouhizal in both seasons.

 

The increment of chemical composition (N,P and K%), and essential oil (%) of plants, herb using the treatment of organic manure + (biofertilizer) A-Microbial may be attributed to increase in the occupancy root zone of plant as a results of adding fertilization treatments which reflected on nutrient uptake by plants and confirm the previous of vegetative growth. Similar results, more or less were obtained by Kandeel et al. (2001) and Abou El-Magedet al. (2008) on fennel Rashed (2002) on Anethum gravolens. Likewise, the results showed significant differences for organic manure +Biofetilizer in the both seasons, which gave the greatest values for all chemical composition. We could concluded  from this study that using a combination of 5m3 organic manure with bio-fertilizer ( Mycorrhizal) has led to obtain the highest mean values of the vegetative growth, chemical composition in addition dill oil percentage.


Table (3).Effect of fertilization treatments on vegetative growth during 2013/2014 and 2014/2015 seasons.

Treatments

Chlorophyll (a) (mg/g)

Chlorophyll (b) (mg/g)

Vitamin (c) mg/100 ml Juice

2013/2014

2014/2015

2013/2014

2014/2015

2013/2014

2014/2015

T1 : NPK-control

26c

28d

15.45e

13.31d

78.00d

76.70de

T2 : 5m3 organic manure/fed

27d

26f

16.48d

15.70e

82.39d

80.40d

T3 : 10m3  organic manure/fed

28c

26f

19.00b

18.50ab

95.02b

93.20b

T4 : 15m3 organic manure/fed

26e

30b

17.67c

17.50b

88.34c

86.80c

T5 : biofertilizar (Mycouhizal)

28c

27e

18.03b

17.50b

80.13d

79.90d

T6 : 5m3 Organic + Mycomhizal

34a

32a

20.50a

19.20a

104.94a

102.60a

T7 : 10 m3 organic + Mycomhizal

28c

29c

12.93f

12.70de

65.66

66.70f

T8 : 15 m3 organic + Mycomhizal

26e

27e

13.00f

12.90de

7.00e

73.10e

T9 : ½ NPK + Mycomhizal

31.0b

30b

12.77fg

12.66de

62.67f

65.80f

T10 : ½ NPK + Mycomhizal + 10m3 Organic/fed

26e

27e

11.72g

11.90e

65.58e

66.40f

L.S.D.(0.05)

0.30

0.28

1.05

1.03

5.70

5.40

           Means followed by the same letters (s) is (are) not significantly different at 0.0.5 levels of probability.


Table (4). Effect of fertilization treatments on vegetative growth during 2013/2014 and 2014/2015 seasons.

Treatments

Chlorophyll (a) (mg/g)

Chlorophyll (b) (mg/g)

Vitamin (c) mg/100 ml Juice

2013/2014

2014/2015

2013/2014

2014/2015

2013/2014

2014/2015

T1 : NPK-control

1.48d

1.38d

0.40d

0.35d

38.70e

40.10g

T2 : 5m3 organic manure/fed

1.50cd

1.42cd

0.42d

0.36d

42.60d

43.70f

T3 : 10m3  organic manure/fed

1.52b

1.47c

0.41d

0.35d

43.30d

44.50e

T4 : 15m3 organic manure/fed

1.59b

1.97c

0.45b

0.46b

44.80c

44.90e

T5 : biofertilizar Mycorrhizal

1.60a

1.53b

0.46bc

0.45dc

45.40b

47.20c

T6 : 5m3 organic + Mycomhizal

1.77b

1.62a

0.50a

0.51a

48.50a

50.40a

T7 : 10 m3 organic + Mycomhizal

1.65ab

1.54b

0.46b

0.46b

46.70b

48.10b

T8 : 15 m3 organic + Mycomhizal

1.67b

1.58ab

0.49a

0.49a

45.50b

47.20c

T9 : ½ NPK + Mycomhizal

1.66b

1.54b

0.45bc

0.45bc

46.40b

46.70e

T10 : ½ NPK + Mycomhizal + 10m3 Organic/fed

1.64b

1.53b

0.42c

0.42c

46.30b

45.30e

L.S.D.(0.05)

0.10

0.05

0.03

0.03

1.05

1.10

              Means followed by the same letters (s) is (are) not significantly different at 0.0.5 levels of probability.

 

Table (5).Effect of fertilization treatments on chemical composition and essential oil percentages during 2014 and 2015 seasons.

Treatments

N %

P %

K %

essential Oil content

2014

2015

2014

2015

2014

2015

2013/2014

2013/2014

T1 : NPK-control

3.06e

3.22e

0.75h

0.81f

2.01i

2.25h

0.159

0.18g

T2 : 5m3 organic manure/fed

3.20de

3.37e

0.90g

0.95e

2.30h

2.45g

0.20e

0.24e

T3 : 10m3  organic manure/fed

3.33de

3.50d

0.96e

0.98d

2.55g

2.60f

0.20e

0.25d

T4 : 15m3 organic manure/fed

3.50c

3.77bc

0.98d

1.02c

2.75e

2.83e

0.18f

0.22f

T5 : Mycorrhizal

3.70bc

3.85b

1.05c

1.10b

2.88c

2.91d

0.25c

0.28c

T6 : 5m3 organic + Mycomhizal

4.17a

4.25a

1.20a

1.18a

3.30a

3.35a

0.32a

0.35a

T7 : 10 m3 organic + Mycomhizal

3.90b

3.85b

1.10b

1.09b

3.05b

3.17b

0.26b

0.29b

T8 : 15 m3 organic + Mycomhizal

3.80b

3.81b

0.95e

0.98d

2.90c

3.01c

0.20e

0.25d

T9 : ½ NPK + Mycomhizal

3.55c

3.60cd

0.93f

0.96e

2.60f

2.90d

0.22d

0.24e

T10 : ½ NPK + Mycomhizal + 10m3 Organic/fed

3.50c

3.5d

0.96e

0.97d

2.80d

2.90d

0.22d

0.24e

L.S.D.0.05

0.25

0.22

0.012

0.01

2.02

0.03

0.003

0.004

Means followed by the same letters (s) is (are) not significantlyy different at 0.0.5 levels of probability.

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