KnE Engineering | International Conference on Basic Sciences and Its Applications (ICBSA-2018) | pages: 284–295

, , , and

1. Introduction

Shoot cutting is one of the method in vegetative reproduction. Vegetative reproduction is which multicellular structures become detached from the parent plant and develop into new individuals that are genetically identical to its parent plant [1]. Vegetative reproduction is more effective and efficient because it can produce the amount (mass) of seed in a short time. Vegetative reproduction with shoot cuttings method is one of good ways in plants nursery, especially Andalas (M. macroura Miq.). Andalas is a dioceous plant in which the male and female reproductive structures are found in different individuals [2]. According to Amperawati and Sapulete [3], the reproductive system of Andalas often do not coincide between the availability of pollen and the stigma that affecting the process of pollination. These obstacles cause the generative multiplication to be very difficult to do. The alternative that is expected for the multiplication of Andalas plants is vegetatively through shoot cuttings. However, roots formed in cuttings are short and have a few roots. The short roots cause low absorption of nutrients, less effective and efficient and the plant become vulnerable to environmental influences especially in harsh environment [4]. These obstacles caused plants experienced the stress which lead into mortality of seedlings after planting [5].

Improving the quality of growing plants is one way to guarantee success in overcoming the limiting factors in the environment [6]. Improving seedling quality can be pursued by providing seedlings with AMF [7]. AMF is a mutualistic symbiosis between fungi and the roots of high-level plants. AMF on shoot cuttings plays a role in initiating adventitious root formation. It has an ability to change the morphological architecture of plant roots because it synthesizes auxins released around the base of cuttings that affect changes that involved in adventitious root formation through hormone-mediated [8].

Various types of AMF that was given to pepper cuttings seedling infecting and increasing the growth of seedlings. Glomus manihotis was the best type that produces the highest percentage and intensity of infection (32.72% and 1.28%) and significantly increases the stem length, number of leaves, leaf area, number of roots and dry biomass of pepper cuttings, and significantly shortens the nursery [9]. On the other research, the inoculation of G. etunicatum on Muna Teak cuttings (Tectona grandis Linn.) was able to change the system pattern of the adventitious roots of Muna Teak shoots cuttings as well as IBA [10]. Based on the description above, a research was conducted to determine the effect of AMF on the growth of Andalas seedlings from shoot cuttings which aimed to determine the type of AMF that compatible to increase the growth of Andalas shoot cuttings.

2. Materials and Methods

The study was conducted from March to August 2016 at the Greenhouse and the Research Laboratory of Plant Physiology, Department of Biology, Faculty of Mathematics and Natural Sciences, Andalas University, Padang. This study used an experimental method that was compiled in a Completely Randomized Design (CRD) with 4 treatments (Without mycorrhizae / control, Glomus sp., Gigaspora sp. and Acaulospora sp.) with 6 replications.

Preparation of media for planting

Sand mixed with compost in a ratio of 2: 1 and put in a polybag with the same volume for cuttings seedling. For seedlings with inoculant treatment used topsoil as palnting media.

Propagation of Andalas cuttings

Cuttings are taken by slanting 45 0 with sharp and clean blades so the slice surface is wider and more roots are formed. The cuttings were soaked in IBA for ± 15 minutes, then transferred to the planting media.

Preparation of AMF inoculants

FMA inoculants are obtained from Seameo Biotrop. To determine the weight of the inoculant to be applied, the spore density calculation must be done in advance. The calculation of spore density based on Mansur (2014) [11].


AMF is inoculated by spreading AMF inoculants to the area around the roots according to the treatment given and covered with the planting media.

Observation parameters

Percentage of AMF infection

The calculation of the percentage of AMF infections based on Sieverding (1991) [12] technique. The percentage of infections is calculated using the equation (Equation 1) and the percentage of AMF infections was catogorized based on its values (Table 1).

Infection percentage = Number of infected roots Number of observed roots ×100
Table 1

Criteria for the Effectiveness of the Degree of Root Colonization.

The percentage of infections Criteria
76 – 100 % Very High
51 – 75 % High
27 – 50 % Medium
6 – 26 % Low
0 – 5 % Very Low
(Sieverding, 1991).

The increase of plants height, number of leaves, length and number of roots

The heigh of plant was measured from the base of the plant to the point where it grows. As for the increase in the number of leaves, the calculated leaves are the leaves that have perfectly opened. Root length is measured from the base to the tip of roots.

Dry biomass

Calculation of biomass is carried out at the end of the observation. The weight sample of wet plants consisting of roots, stems and leaves is cut into pieces and put in an oven at 80 C until the weight is constant.

Mycorrhiza dependency

The calculation of the mycorrhiza dependency based on Habte and Manjunath (1991) [13]. Mycorrhiza dependency is calculated using the equation (Equation 2) and mycorrhiza dependency was catogorized based on its values (Table 2).

MD = BM of Inoculated plant BM of Noninoculated plant BM of Noninoculated plant ×100%


MD = Myccorrhiza Dependency

BM = Dry Biomass

Table 2

The criteria of Myccorrhiza Dependency.

Values of Myccorrhiza Dependency Criteria
> 70 % Very high
50 – 75 % High
25 – 50 % Medium
< 25 % Low
0 % Nil
(Habte and Manjunath, 1991).


Data analysis was carried out on the average increase in plant height, average number of leaves, average number and length of roots and biomass by using variance analysis, the significantly different result was analysis with Duncan's New Multiple Range Test (DNMRT) at p < 0,05 level test. As for the percentage of AMF colonization and plant dependence on mycorrhiza, it was carried out by descriptive test.

3. Results and Discussions

Percentage of FMA colonization and plants mycorrhiza dependency

Table 3

The percentage of AMF colonization at Andalas (M. macroura Miq.) seedling from shoot cuttings And mycorrhiza dependency.

Treatments Root Colonization (%) Criteria Myccorrhiza Dependency (%) Criteria
Glomus sp. 43,3 Medium 17,59 Low
Gigaspora sp. 60,0 High 54,62 High
Acaulospora sp. 56,6 High 91,67 Very high

The percentage of colonization of seedling roots of Andalas from shoot cuttings shows medium-high criteria. The criteria for high mycorrhizal colonization were found in Gigaspora sp. and Acaulospora sp. (Table 3). The high level of infection shows high adaptability of Gigaspora sp. and Acaulospora sp. against Andalas plants. Suitability of host plants with mycorrhizae will cause spores to infect roots, germinate, and then spread more widely to other plant root tissues [14]. Infection in the root of Andalas seedlings from shoot cuttings is possible due to the presence of plant root exudates that stimulate the growth of mycorrhizal inoculants. Root exudates contain carbohydrates, amino acids and other substances needed by mycorrhizae [15]. In this associations, AMF derives photosynthate from the host plant and host plant gains the nutrients through AMF [16]. The different percentage of infections and plants responses to AMF highly dependent on the compatabilty between AMF and host plan species [17].

Mycorrhizal infection is known by the formation of structures such as hyphae, mycelia, arbuscus, vesicles or spores [18]. Hyphae is a structure to absorb nutrients, while mycelia is a collection of hyphae. The arbuscule is the structure of hyphae for nutrient exchange between symbiotic plants and mycorrhizae. The vesicle is an oval-shaped structure, containing fatty fluid, as a food storage organ or develops into klamidospora, which is a reproductive organ and structure of to maintain the life of fungi [19]. From the results of observations found several mycorrhizal structures in the roots of Andalas seedlings from shoot cuttings, hyphae and vesicles (Fig.1).

Figure 1
Seedling roots of Andalas from shoot cuttings colonized by mycorrhizae (a) hyphae (b) Vesicles (4 × 10 Magnification).

The dependence of seedlings from the shoot cuttings of Andalas plants on mycorrhizae ranged from 17.59 to 91.67% which was categorized as low-very high criteria, which is Acaulospora sp. showed very high criteria for mycorrhizal dependency (Table 3). This shows that the type of Acaulospora sp. have a symbiotic ability and better compatibility with Andalas seedling from shoot cuttings. The differences in compatibility levels are caused by exudates of glucose and organic acids found in the roots and types of AMF [20]. High compatibility causes Acaulospora sp. more able to increase the growth of shoot cuttings Andalas. The high dependency of shoot cuttings on mycorrhizae was also caused by the root system formed on shoot cuttings. The roots formed in the cuttings are fewer and have short roots which cause the absorption of nutrients and water are less effective and efficient [4]. Plants that has high dependence on mycorrhizae will showed a well growth performance and when there is no association with mycorrhizae the plant will show imperfect growth. The high mycorrhizal infection in plant roots does not necessarily indicate high dependence on mycorrhizae [21].

The average increase of height plant, number of leaves, root length and number of roots

The results of analysis of variance on the average increase of height plants, the increase in the number of leaves, root length and number of roots in each treatment (Table 4).

Table 4

The average increase of height, leaves number, length and number of roots from Andalas shoot cuttings seedlings inoculated with Arbuscular Mycorrhizal Fungi.

Treatments height (cm) leaves number (sheet) roots length (cm) roots number Shoots Biomass (g) Roots Biomass (g)
Control 12,15 b 5,50 a 17,80 b 12,00 a 0,94 a 0,14 a
Glomus sp. 10,69 b 5,67 a 21,02 ab 13,00 a 1,09 a 0,18 a
Gigaspora sp. 11,45 b 6,83 a 18,73 b 15,00 a 1,45 a 0,22 a
Acaulospora sp. 19,50 a 6,83 a 28,85 a 15,00 a 1,80 a 0,27 a

The treatment followed by the same letter in the same column is not significantly different at p < 0,05 level by Duncan's Multiple Range Test

The results of the analysis of variance showed that the inoculant treatment of Acaulospora sp. gives a significantly different effect on plant height and root length. Glomus sp. And Gigaspora sp. does not show a significantly different effect than control (Table 4). This shows that Acaulospora sp. has better compatibility with Andalas seedling from shoot cuttings compared to other inoculants found in the treatment. It is more efficient in increasing the height of seedlings from Andalas shoot cuttings. Symbiotic relationship between plants and mycorrhizae is strongly influenced by the level of compatability type of mycorrhizal fungi with host plants [9]. The compatability of mycorrhizae in association with plants is influenced by several things such as the environment, mycorrhizal species and types of plants [22].

Compatible mycorrhizae will be more effective in optimizing the growh of plants. Compatible isolates can support symbiosis to work effectively [23]. The symbiosis between mycorrhizae and plants can maintain the balance of the physiological processes of plant [24]. Acaulospora sp. as one type of mycorrhizae will be able to increase the absorption of macro nutrients and micro nutrients. Increased nutrient uptake is a result of the formation of thick sheaths of hyphae and increased absorption [25]. Mycorrhiza also plays a role in stimulating the formation of growing hormones, such as cytokines, gibberellins and auxins, this hormones able to increase plant height and root length. Cytokinin and auxin hormones play a role in cell division and elongation, while giberelin is more dominant in stimulating the extension of the inter node, causing an increase in plant height [26].

The association between Acaulospora sp. with the roots of Andalas shoot cuttings caused the formation of hyphae that was able to increase the ability of plant roots to get nutrients in the soil, especially P elements. The principle of mycorrhizae is to infect the root system of the host plant, producing hyphae intensively so that the plants containing mycorrhizae will be able to increase capacity in nutrient absorption [27]. The supply of nutrients increasing the activity of cell protoplasm and it supports cell to growth [28].

In the results it is known that although Acaulospora sp. showed a significantly different effect on plants height, but there was no statistically significant difference in the number of leaves. This is because the seedlings have a fairly wide gap between the nodes, so the high increase in the treated seedling is not always followed by the increase in the number of leaves. Nonoptimal mycorrhizae in increasing the number of leaves is also possible because of the insufficient nutrients needed by plants for leaf formation, such as N element. Although mycorrhizae are able to increase the absorption of macro and micro nutrients, the nutrients that are mainly increased is P elements [25].

At the number of roots also obtained an effect that was not significantly different statistically. This is possible because there is insufficient (little) auxin produced by Acaulospora sp. to trigger an increase in the number of roots. On patchouli stem cuttings (Pogostemon cablin), that IBA (auxin) at a low concentration of 25 ppm had no significant effect on the number of roots but significantly affected the root length. This is because at low concentrations, IBA will encourage root lengthening [29]. Another factor that is also considered as a factor that caused no significant difference in the number of roots is the presence of rizocalin hormone. The activity of rhizocalin causes no effect of IBA hormone (auxin) on the number of roots Jabon cuttings. Rizokalin is a hormone that is naturally produced by plants and functions in stimulating root lengthening [30].

In the dry biomass also found an effect that is not significantly different, both on the dry biomass of the upper part of the plant and the roots. This is presumably because the observation time is relatively short so the role of mycorrhizae in helping nutrient absorption to increase the dry biomass of the plant has not been seen. The dry biomass of plants reflects the status of nutrients and the amount of nutrients absorbed by plants and the rate of photosynthesis. Apart from P elements, the dry biomass of plants is also strongly influenced by other nutrients, especially elements of N and K. Nitrogen serves to increase vegetative growth [31]. Uptake K will increase the physiological work of plants such as in photosynthesis and respiration processes. It can increase the accumulation of carbohydrates in the process of cell division [32]. Growing and forming of vegetative organs of plants greatly affect dry biomass [33].

4. Conclusions

Acaulospora sp. is the most compatible type of AMF for the growth of Andalas shoot cuttings and able to increase the height and root length 1.6 times better than controls and show very high dependency criteria.


Thank you to Dr. Tesri Maideliza, Prof. Dr. Mansyurdin, Solfiyeni, MS and Zuhri Syam, MP who had given suggestions for research and article writing.



Na'iem, M. (2000). Prospek Perhutanan Klon Jati di Indonesia. Prosiding Seminar Nasional Status Silvikultur di Indonesia Saat Ini. Fakultas Kehutanan UGM. Yogyakarta. 1-2 Desember 2000


Jawati, S. (2006). Studi Variasi Morfologi Tumbuhan Andalas (Morus macroura Miq.) Di Sumatera Barat.[Minithesis]. Andalas University. Padang


Amperawati, T and Sapulete, E. (2001). Andalas (Morus macroura Miq). Jenis potensial Sumatera Barat yang belum dimanfaatkan. Konivere. Visi dan informasi Teknik BPK Pematang Siantar No. 1/Tahun XVI/Desember/2001. Hal1-5.


Prastowo N, H and Roshetko, J. M. (2006). Teknik Pembibitan dan Perbanyakan Vegetatif Tanaman Buah. World Agroforestry Centre (ICRAF) dan Winrock International. Bogor, Indonesia. p.100


Omon, R. M. (2008). Effect of Mycorrhizal Tablet Dosage on the Growth of Two Red Meranti Species from Seeds and Cuttings at PT. ITCIKU Concession Holder, Balikpapan, East Kalimantan. Info Hutan. 5(4): 329-335.


Setiawan, A. B. (2015). Uji Lapangan Pemanfaatan Glomus etunicatum dan Gigaspora margarita Pada Bibit Tanaman Acasia Decurrens Wendl.[Thesis]. Bogor Agriculture University. Bogor


Rajan, S.K., Reddy, B. J. D. and Bagyaraj, D. J. (2000). Screening of arbuscular mycorrhizal fungi for their symbiotic efficiency with Tectona grandis. For. Ecol. Manage 126: 91-95.


Scagel, C. F. (200l). Cultivar Specific Effects of Mycorrhizal Fungi on the Rooting of Miniature Rose Cutting. J. Environ. Hort. 19 (1): 15-20


Aguzaen, H. (2009). Respon Pertumbuhan Bibit Stek Lada (Piper Nigrum L.) Terhadap Pemberian Air Kelapa dan Berbagai Jenis CMA. Agronobis. 1 (1): 36-47.


Alimuddin, L. O. (2008). Peranan Fungi Mikoriza Arbuskula Dalam Perbanyakan Jati Muna (Tectona grandis Linn.f) Melalui Stek Pucuk. Agriplus. 18 (1): 51-59.


Mansur, I. (2004). Teknik Isolasi and Pembuatan Kultur Murni Cendawan Mikoriza Arbuskula (CMA). Prosiding Workshop: Produksi Inokulan Cendawan Mikoriza Arbuskula. Asosiasi Mikoriza Indonesia. West Java. Bandung, July 22-23 2004.


Sieverding, E. (1991). Vesicular-Arbuskular Mychorrizal Management in Tropical Agrosystems. Technical Cooperation. Federal Republic of Germany.


Habte M, Manjunath A. (1991) Categories of vesicular-arbuscular mycorrhizal dependency of host species. Mycorrhiza 1:3–1


Widiastuti, H., Sukarno, N., Darusman, Latifah and Kosim. (2005). Tingkat Kedinian Infeksi Acaulospora tuberculata dan Gigaspora margarita pada Bibit Ketapa Sawit. Jurnal Mikrobiologi Indonesia. 10 (1): 42-44.


Simarmata, T and Herdiani, E. (2004). Efek pemberian inokulan CMA dan pupuk kandang terhadap P tersedia, retensi P dalam tanah dan hasil tanaman bawang merah (Allium ascalonicum L.). Dalam Prosiding: Teknologi Produksi dan Pemanfaatan Inokulan Endo-Ektomikoriza untuk Pertanian, Perkebunan dan Kehutanan (Simarmata T, Arief DH, Surmani Y, Hindersah R, Azirin A dan AM Kalay, Eds). Mycorrhiza Association Indonesia-West Java. ISBN 979-98255-0-4


Ravnskov, S. and Larsen, J. (2016). Functional compatability in cucumber mychorrizas in terms of plant growth performance and foliar nutrient. Plant Biol. 18: 816-823


Setiadi, Y. (1995). The Practical Application of Arbuscular Mycorrizhae Fungi for Reforestation in Indonesia. [Thesis]. Kent: Research School of Biosciences, University of Kent.


Setiadi, Y. and Setiawan, A. (2011). Study of Arbuscular Mycorrhizal Fungi status at Rehabilitation Post-Nickel Mining Area (Case study at PT INCO Tbk. Sorowako, South Sulawesi). Jurnal Silvikultur Tropika. 3: 88-95.


Widiatma, P. S. (2015). Identifikasi mikoriza vesicular arbuskular (MVA) pada rhizosfer tanaman ubi jalar (Ipomoea batatas L) dan ubi kayu (Manihot esculenta crantz) serta perbanyakkannya dengan media zeolit.[Minithesis]. Bukit Jimbaran: Universitas Udayana.


Hapsoh. (2004). Kompatibilitas MVA dan beberapa genotype kedelai pada berbagai tingkat kekeringan tanah Ultisol: Tanggap morfologi dan hasil. [Dissertation] Bogor: Sekolah Pasca Sarjana. Bogor Agriculture University.


Setiadi. (2001). Peranan Mikoriza Arbuskula dalam Reboisasi Lahan Kritis di Indonesia. Makalah Seminar Penggunaan Mikoriza CMA dalam Sistem Pertanian Organik Rehabilitasi Lahan. Bandung. April 21-23, 2001


Syah, A. Jumjunidang, Fatria, J. M and Riska, D. (2005). Pengaruh Inokulasi Cendawan Mikoriza Arbuskula Terhadap Pertumbuhan Bibit Jeruk Varietas Japanche Citroen. Jurnal Hortikultura. 15 (3). 171- 176


Tuheteru, F. D and Husna. (2011). Growth and Biomass Albizia saponaria on Local Arbuscular Mycorrhiazae Fungi From Southeast Sulawesi. Jurnal Silvikultur Tropika. 2 (3): 143 – 148.


Sastrahidayat, I. R. (2011). Rekayasa Pupuk Hayati Mikoriza Dalam Meningkatkan Produksi Pertanian. Universitas Brawijaya Press. Malang.


Husin, E. F., Ausar, S and Kasli. (2012). Mikoriza Sebagai Pendukung Sistem Pertanian Berkelanjutan dan Berwawasan Lingkungan. Andalas University Press. Padang.


Talanca, H. (2010). Status Cendawan Mikoriza Vesikular Arbuskular (MVA) Pada Tanaman. Prosiding Pekan Serealia Nasional. Balai Penelitian Tanaman Serealia, South Sulawesi.


Iskandar, D. (2002). Pengaruh Pupuk Hayati Mikoriza Untuk Pertumbuhan dan Adaptasi Tanah di Lahan Marjinal.[Minithesis]. Riau University. Pekanbaru. 58 Hal.


Rossiana, N. (2003). Penurunan Kandungan Logam Berat Dan Pertumbuhan Tanaman Sengon (Paraserianthes falcataria L (Nielsen) Bermikoriza Dalam Medium Limbah Lumpur Minyak Hasil Ekstraksi.[Minithesis]. Padjadjaran University. Bandung


Hasanah, F. N and Setiari, N. (2007). Pembentukan Akar pada Stek Batang Nilam (Pogostemon cablin Benth.) setelah direndam Iba (Indol Butyric Acid) pada Konsentrasi Berbeda. Buletin Anatomi dan Fisiologi. 15(2). [doi:]


Jinus., Prihastuti, E and Haryanti, S. (2012). Pengaruh Zat Pengatur Tumbuh (ZPT) Root-Up dan Super-GA Terhadap Pertumbuhan Akar Stek Tanaman Jabon (Anthocephalus cadamba Miq). Jurnal Sains dan Matematika. 20 (2): 35-40.


Erawan, D., Yani W. O and Bahrun, A. (2013). Growth and Yield of Mustard (Brassica juncea L.) under Various Dosages of Urea Fertilizer. Jurnal Agroteknos. 3(1): 19-25


Goldsworthy, P. R. and Fisher, N. M. (1992). Fisiologi Tanaman Budidaya Tropik. Universitas Gadjah Mada Press. Yogyakarta.


Tirta, I. G. (2006). The effect of potassium and mycorrhiza on growth of vanilla (Vanilla planifolia Andrew). Biodiversitas. 7 (2): 171



  • Downloads 3
  • Views 26



ISSN: 2518-6841