Indian Journal of Animal Research

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Indian Journal of Animal Research, volume 57 issue 9 (september 2023) : 1117-1185

Morphological and Molecular Identification of Novel Green Peach Aphids (Myzus persicae) (Hemiptera: Aphididae) and Their Microbiome Diversity in Taif Governorate

Somia E. Sharawi1,*
1Department of Biology Sciences, Faculty of Sciences, King Abdul-Aziz University, Jeddah, Saudi Arabia.
Cite article:- Sharawi E. Somia (2023). Morphological and Molecular Identification of Novel Green Peach Aphids (Myzus persicae) (Hemiptera: Aphididae) and Their Microbiome Diversity in Taif Governorate . Indian Journal of Animal Research. 57(9): 1117-1185. doi: 10.18805/IJAR.BF-1677.

Background: The green aphid (Myzus persicae) found in Taif Governorate is a sap-sucking insect that occurs globally. These insects target all the plant parts in both their nymphal and adult stages, causing them to discolour and dry out.

Methods: In this study, 250-300 aphids were widely collected from rose plants in different locations in the Taif Governorate. These insects were identified using morphological traits and mitochondrial gene sequencing.

Result: According to morphological traits, these samples belonged to the species Myzus persicae. Considering that aphid species are very similar morphologically, the identification of samples that were similar to more than one species was performed using their genetic characteristics. Aphid strain characterization through Sanger sequencing with multilocus sequence typing (MLST) and phylogenetic analysis revealed significant diversity, and comparing mitochondrial gene sequences of aphids with extant sequences in GenBank showed high similarity and a new strains was recorded in the NCBI database for the first time in Taif Governorate. For microbiome isolation, five bacterial species were isolated from M. persicae (Bacillus spp., Serratia spp., Staphylococcus, Micrococcus spp. and Escherichia coli). Our results showed a significant correlation between M. persicae and microbial communities. Future research should focus on discovering new strains of M. persicae and understanding the eco-evolutionary patterns of aphid-symbiont interactions in the Taif Governorate, particularly in biological control.

Aphids are commonly known as plant sap-sucking insects and they belong to the order Hemiptera. Whenever aphid infestation occurs, plants suffer from the loss of color and become dry and discolored as a result of aphid infestation (Abd-Ella, 2015). The destructive nature of insects such as these often leads to extensive damage to crops as consequence of them causing extensive damage to the crops (Singh and Singh, 2020). Besides damaging plants, aphids are also responsible for the secretion of honeydew, which causes smoky molds, which harm photosynthesis and the yield of crops (Hawrył et al., 2015). There have been approximately 4,000 species of aphids classified within this order, which makes it one of the most destructive pests in agriculture due to the large number of species it contains (Dixon et al., 1987; Blackman and Eastop, 1984).
Saudi Arabia relies on the Taif Rose to obtain oil. This is because the Taif rose has an incredibly high oil content and capacity to adapt to its local climate; therefore, aphids are the most damaging insects. There are several parts of a rose plant that can be infested by insects, but buds, leaves and flowers are the most likely to be affected by these pests. Because aphid infestation hinders rose production, particularly the green peach aphids (Myzus persicae), which are the most common aphid pests to infest roses, so aphid infestations lead to lowered rose production (Karlik and Tjosvold, 2003). The symptoms of this pest are deformed leaves and new bloom stems, stunted growth, galls and a change in the plant’s biochemistry when infected with it (Singh et al., 2014). There is a significant reduction in photosynthetic activity and yield when blossoms and leaves secrete honeydew, which, in turn, leads to mold development (Ali Reza et al., 2012).
The presence of M. persicae in roses, in turn, negatively affects the market value of rose flowers and hurts the ability of roses to flower, resulting in huge losses for the industry (Jayma and Ronald, 1992). Aphids cause damage to plants in several ways, including direct and indirect damage to the plants, as well as the spread of bacteria and viruses, several of which live symbiotically with the aphids (Fuchs, 2010). It has become increasingly apparent that insects have a strong relationship with their microbiota, which has huge implications for their ecology and growth (Lewis and Lizé, 2015). According to several studies that have been conducted, there seems to be a link between geographical location, nutrition and insect microbiome composition (Ma et al., 2021). Even though many microbes are found in the body of insects, including symbiont bacteria, there is still a lack of understanding about the functions of these microbes. Symbiont bacteria have several benefits due to their presence, including the ability to promote growth and protect against the natural enemies of the organism (Oliver and Perlman, 2020). Besides helping insects cope with environmental challenges, they also assist in enhancing the growth of insects (Dunbar et al., 2007). In the last few months, Taif Governorate has been experiencing an increase in the number of green aphids.
According to botanical research, Buchnera contains an unmatched level of amino acids such as methionine and tryptophan, among others (Gündüz and Douglas, 2009). Furthermore, aphids have evolved biosynthetic genes that allow them to provide their symbionts with compounds the symbionts are unable to produce for themselves thanks to their ability to provide them with compounds (Brinza et al., 2009).
Aphids carry a variety of secondary symbionts in addition to Buchnera and its associated symbionts, in addition to the aphids which carry Buchnera and its associated symbionts. Some of these symbionts manipulate host reproduction, whereas others work in a mutualistic manner to increase host survival and fertility, including Serratia symbiotica, Hamiltonella defensa, Regiella inseticola, Rickettsia, Rickettsiella, Spiroplasma, Wolbachia, Arsenophonus and Fukatsuia symbiotic (Ayoubi et al., 2020). The microbial diversity of M. persicae, however, has not been studied and most species of aphids do not have well-defined bacterial communities.
As a first study, we describe the morphological and molecular identification of the M. persicae green peach aphid and its distinct isolated microbiome in Taif Governorate.
Collection and morphological identification of M. persicae
From ten locations in the Taif Governorate, a total of 250-300 samples of the bacterium M. persicae were collected (Al-Howya, Shahar, Al-Waheet, Al-Maween, Al-Roddaf, Omsharam Alolia, Wdy Shaqra, Al-Sar, Al-Hada and Al-Shafa). Aphids were collected and placed in small plastic containers with small holes (1 mm) and the tops were covered with gauze to keep them from escaping; then, they were transferred to the Laboratory of the Faculty of Sciences at King Abdul-Aziz University (KAU), Jeddah Province for further experiments.
In this study, males, females and nymphs of the species M. persicae were analyzed along with their adult counterparts. Using standard taxonomic keys based on their morphological characteristics, the species were identified by using standard taxonomic keys. M. persicae fixed in 70% ethanol was morphologically examined under a stereomicroscope (OLYMPUS, TOKYO, JAPAN) at a magnification of 10x or 20x using a stereo microscope (for the morphological examination) (Wipfler et al., 2016).
Molecular identification of M. persicae
A DNeasy Blood and Tissue Kit (Qiagen, Hilden, Germany) was used to extract genomic DNA. Genomic DNA purity was measured by a nanodrop instrument with a ratio of A 260/280 ≥1.7. Universal primers (LCO1490 (5'-GGTCA ACAAATCAT AAAGATATTGG-3') and HCO2198 (5’- TAAACTTCAGGGTG ACCAAAAAATC-3’) were used in PCR (polymerase chain reaction) with 700-800 bp. The PCR conditions were as follows: initial denaturation: 5 min at 94°C, denaturation: 1 min at 94°C, annealing: 1 min at 58°C, extension: 2 min at 72°C, number of cycles: 35 and final extension: 10 min at 72°C. For size estimation, 10 µl of molecular weight marker was loaded in the first well. The gel was run at 127 V for one hour, attached firmly and connected to the power supply (MOLECULE-ON PS-M-300 V Electrophoresis Power Supply, India). One percent agarose powder was weighed and dissolved in 1x TAE buffer by placing the suspension in a microwave oven for heating. A final concentration of 0.1 µg/ml ethidium bromide (EtBr) from a 10 mg/ml stock in distilled water was added to the agarose. Then, agarose was poured into the gel tray and the comb was placed at one end. The gel was left for one hour to solidify before the comb was removed. The gel was then placed into an electrophoresis tank and submerged in 1x TAE buffer as the running buffer. The 5x loading dye was added to the samples to be loaded according to the volume ratio 5:1 of sample to dye. The gel was run in a horizontal gel apparatus at 127 volts for 60-90 min. DNA fragments were visualized on a UV transilluminator and photographed by using a Viber Lourmat Gel Imaging System. A 700 bp DNA ladder (Promega, USA) was used as a marker. The PCR products were 700 bp. Samples were sequenced using Sanger sequencing at Macrogen, South Korea. It was conducted comparison between nucleotide sequence data and the NCBI database using the Basic Alignment Search Tool (BLAST). By comparing the sequences of the aphids collected from the field with those in the gene bank, the aphids collected from the field were identified.
Bacterial isolation
Bacteria were isolated from M. persicae. Twenty-five aphids from each location (Al-Howya, Shahar, Al-Waheet, Al-Maween, Al-Roddaf, Omsharam Alolia, Wdy Shaqra, Al-Sar, Al-Hada and Al-Shafa) were sterilized by ethanol (70%) and moved to nutrient agar. Then, the hemolymph was extracted, streaked and cultured. To obtain uniform morphologies of bacterial colonies after incubation at 30°C for 48 hours, it was necessary to subculture the colonies after the incubation (Gündüz and Douglas, 2009). After the isolated bacteria were kept in stock cultures for up to three months, the Microbiology Laboratory of King Abdul-Aziz University (KAU), Jeddah province, tested them for the presence of viral and bacterial pathogens. This study was conducted using an autoclave (OT-40 L-NUVE) for 15-20 minutes at 121°C to sterilize all media used in this experiment.
Gram stain of bacterial isolates
By using forceps, we repeatedly passed a slide with bacteria over a heat source so that it could be “heat-fixed” by staining it with Gram staining and then heating it using forceps again. During the process of passing the slide through the flame, it is necessary to pass it quickly to prevent overheating. Following the fixation of the stain on the staining tray, the slide was placed over the smear and the crystal violet solution was applied over the smear after one minute. After rinsing the slides with either distilled or tap water, slides were then treated with a solution of iodine after being rinsed with an iodine solution. During the process of removing the iodine solution from the slide, the slide is flooded with distilled or tap water for approximately 1-5 seconds, then rinsed with a decolorizer solution. After the slides were soaked in safranin for 30 seconds in an attempt to remove the stain, they were rinsed in tap water or diluted in a solution of tap water and soaked for another 30 seconds. As a part of the process of detecting bacteria, slides were examined using 100×-objective lenses. Those bacteria that are Gram-positive are staining deep violet or blue, whereas those that are Gram-negative are staining pink or red, depending on the strain.
Biochemical reactions of bacterial isolates
It was determined that the bacteria could be identified using Analytical Profile Index Test Strips (API-20E), according to their biochemical and morphological characteristics. Using this test, the enteric-negative rods can be distinguished from the enteric-positive rods. Each of the twenty compartments on each of the strips containing the strips contains a compartment for the dehydrated strips. Each well was then rehydrated with a bacterial suspension that was used as a rehydration agent. Some of the wells showed a change in color as the pH of the solution changed, while others required the addition of reagents. According to codebooks based on the sequences of the profile numbers, the profiles of positive and negative results were correlated with bacterial species using the profiles with positive and negative results.
Molecular identification of isolated bacteria
To determine the DNA of Gram-stained bacteria that were positive and negative, the GeneJET Genomic DNA Purification Kit (#K0721) was used with some modifications. For gram-positive bacteria, 2×109 bacterial cells were resuspended in 180 μl of lysis buffer in a 1.5 ml microcentrifuge tube, incubated for 30 min at 37°C, mixed thoroughly by vortexing and then transferred for centrifugation for 10 min at 7000 rpm. For gram-negative bacteria, 2×109 bacterial cells were resuspended in 180 μl of digestion solution in a 1.5 ml microcentrifuge tube, mixed thoroughly by vortexing and then transferred for centrifugation for 10 min at 7000 rpm. In the next step, both positive and negative samples were incubated at 56°C while vertexing occasionally using a shaking water bath for 30 min. Then, 20 μl of RNase was added and mixed by vertexing and incubated for 10 min at room temperature. Then, 400 μl of 50% ethanol was added and mixed by vertexing. The prepared lysate was then transferred to a GeneJET Genomic DNA Purification Column inserted in a collection tube and centrifuged for 1 min at 8000 rpm. The flow-through solution was discarded. Then, 500 μl of wash buffer (1) was added and centrifuged for 1 min at 10000 rpm. Then, the flow-through was discarded. Five hundred microlitres of wash buffer (2) was added to the GeneJET Genomic DNA Purification Column and centrifuged for 3 min at 15000 rpm. Two hundred microlitres of elution buffer were added to the center of the GeneJET Genomic DNA Purification Column membrane to elute genomic DNA, incubated for 2 min at room temperature and centrifuged for 1 min at 10000 rpm. Total DNA was stored at -20°C. Genomic DNA purity was measured by a nanodrop instrument ratio of A 260/280 ≥1.7. The primer sequences used were the universal primer 16S rRNA. The amplification was performed in 25 μl containing 1× GoTaq_Green Master Mix (Promega, USA), 2 μl of DNA template and 1 μl of forward and reverse primer (10 pmol). The amplification was performed by heating the sample at 95°C for 5 min and 35 cycles of 94°C for 30 s, 59°C for 30 s and 72°C for 45 s, followed by a final extension step of 72°C for 10 min. In the final step, the temperature was set at 4°C for an infinite amount of time. Two microlitres of DNA samples were checked using 1.5% agarose gel electrophoreses at 100 V in an electrophoresis system for 25 min in TAE buffer (40 mM Tris-acetate, 1 mM EDTA, pH 8.0). A 100 bp DNA ladder (Promega, USA) was used as a marker. The PCR products were approximately 500-600 bp. Samples were sequenced using Sanger sequencing at Macrogen, South Korea. To compare nucleotide sequence data with the NCBI database of nucleotide sequences, we used the Basic Local Alignment Search Tool (BLAST), which is part of the National Centre for Biotechnology Information.
Morphological identification of aphids
Taif Governorate is known as the city of Aphid because of the climate. Large samples of green aphids were collected from ten places in the Taif Governorate, with a total of 250-300 samples. One species of aphid was identified based on its morphological characteristics of green color. The species can be found throughout the Taif Governorate and on a wide variety of plants, including peppers, cucumbers, tomatoes, eggplants and many others, as well as many fruit trees. In our study, we found M. persicae in rose plants, which are distributed all over the Taif Governorate. The wingless aphids are yellowish or greenish in color and they measure approximately 0.5 to 1.0 mm in length, as shown in Fig 1 (a and b). The head has a long setaceous antenna with five to six segments as shown in Fig 2 (a and b). The compound eye was clear with a lateral black spot. Mouthparts belong to the piercing-sucking type, as shown in Fig 3.

Fig 1: a) Dorsal view of the immature aphid, b) Ventral view of the immature aphid.


Fig 2: a) Setaceous antenna with five segments, b) Setaceous antenna with sex segments.


Fig 3: Piercing sucking mouthparts.

The thorax is composed of three segments with six legs and no wings, as shown in Fig 4. The abdomen has seven segments, as shown in Fig 5 and ends with cornicles that are moderately long and dark in color, as shown in Fig 6 (a and b).

Fig 4: Thorax in wingless stage.


Fig 5: Abdominal segments.


Fig 6: a) Wingless aphid cornicles (10x), b) Wingless aphid cornicles (20x).

Wingless males and females can be distinguished by the reproductive system and are only found in females and their blades, as shown in Fig 7 (a and b) and 8 (a and b). Winged adults are larger with dark heads capsule and long antennae, as shown in Fig 9, dark thorax with long wings, as shown in Fig 10 and long and black segmented cornicles, as shown in Fig 11.

Fig 7: a) Wingless female adult (10x), b) Wingless female adult, (20x).


Fig 8: a) Wingless male adult (10x), b) Wingless male adult (20x).


Fig 9: Black head capsule in winged adult.


Fig 10: Long wings in winged adult.


Fig 11: Long and black segmented cornicles in winged adult.

Molecular identification of M. persicae
To identify aphids using molecular techniques, PCR was used for amplification using universal primers. The samples were detected and the length of the DNA was 700 bp as in Fig 12. In the sequencing reaction, samples were sent to Macrogen, South Korea and the nucleotide sequence of the samples was obtained by Sanger sequencing. Phylogenetic analysis was carried out based on sequences obtained from aphids with other reference sequences of NCBI through BLAST. The interesting fact of our results is that the similarity was ranging between 97-98% and the sequences of the new aphid have been deposited in GenBank with new accession numbers for the first time in Saudi Arabia and data were recorded and published in the NCBI database.

Fig 12: Gel electrophoresis of M. persicae.

Phylogenetic analysis of M. persicae
Phylogenetic analysis of M. persicae was carried out based on universal primers obtained from aphids collected from the Taif Governorate with other reference sequences of NCBI through BLAST. Evolutionary distances were calculated using the Maximum Composite Likelihood method and 1000 bootstrap values were used to construct the phylogenetic. According to the phylogeny, aphids showed a high degree of similarity with M. persicae ranging between 97-98%, as shown in Fig 13 and Table 1.

Fig 13: Sequences similarity of tested aphid compared to GenBank using MEGA X software.


Table 1: Accession numbers and their links in the NCBI database.

Molecular identification of isolated bacteria
Bacteria were isolated from M. persicae. The Gram staining of aphids has resulted in the isolation of five species of bacteria that can be found in them. The negative Gram stain bacteria were Bacillus spp. and Micrococcus and the positive bacteria were Serratia spp., Staphylococcus and Escherichia coli. This study detected Serratia among the isolated species for the first time. For molecular identification, the presence of bacterial DNA was assessed in M. persicae using 16S rRNA. Bacterial DNA was extracted and amplified through PCR using 16S rRNA markers. The bacterial DNA was detected in samples and the length of the DNA was 450 bp, appropriate to the 16S rRNA gene length bacterial. An identity comparison with the gene sequence in the GenBank sequence database revealed a 100% similarity to the genome of the GenBank bacteria.
In the present study, morphological and molecular identification of M. persicae was examined through the 2022/2023 seasons. Researchers have shown that the morphological characteristics of aphids feeding on rose plants are stable over time and such characteristics were measured in field-collected aphids, which was confirmed by many authors (Mittné et al., 2023; Al-Kallabe et al., 2023). For molecular identification, phylogenetic analysis of M. persicae was carried out based on universal primers obtained from aphids collected from the Taif Governorate with other reference sequences of NCBI through BLAST. According to the phylogeny, aphids showed a high degree of similarity ranging between 97-98% with M. persicae and new strains were recorded in the NCBI database with accession numbers. In this study, the diversity of the M. persicae microbiome was also examined as part of the study. As part of the study, a population of M. persicae was collected from the Al-Taif Governorate and was used as the model. According to Ateyyat (2008), Bacillus sp has been found in aphids in a previous study (Ateyyat, 2008). Several antimicrobial compounds, such as phenols, play an important role in preventing bacteria and fungi from colonizing their host (Blackburn, 2008). Bacillus megaterium has been isolated from Aphis pomi De Geer, one of the green apple aphids found in the Samsun province of Turkey  (Wipfler et al., 2016). As we have found out, Serratia species are also found in aphids, where they are frequently found as facultative symbiotic bacteria that live jointly with their hosts (Al-Kallabe et al., 2023; Mittné et al., 2023). Several benefits can be derived from secondary symbionts for aphids. This provides them with a level of resistance against parasitic wasps and fungi. Apart from improving their tolerance to thermal stress, controlling aphid reproduction, influencing the utilization of the host plant and changing their color, they can also improve their resistance to cold (Manzano-Marín et al., 2017). Additionally, studies have found that the gut flora of aphids on field crops contains Staphylococcus as well as Bacillus species and Serratia species (Haynes et al., 2003). There have been several Micrococcus species isolated from the guts of pea aphids, ranging from immature to apterous adults. It has also been reported that E coli bacteria have been found in aphids raised in a laboratory (Gerardo et al., 2010; Moran et al., 2005). A future study should focus on the diversity of bacteria found on aphids obtained from the Taif governorate from the perspective of biological control, especially from the standpoint of understanding the interactions between aphids and their symbionts within the context of eco-evolution.
In this study, the microbiome diversity of M. persicae, a green peach aphid collected from the Al-Taif Governorate, was examined for its contribution to the microbiome composition. Using mitochondrial gene sequences from the NCBI database for the first time, a new strain of an aphid in Taif Governorate, Saudi Arabia, was identified based on the similarity between the mitochondrial gene sequences in the GenBank and those in the gene bank, ranging from 97-98%. We isolated five bacterial species from M. persicae during the isolation of the microbiome. These species include Bacillus sp, Serratia sp, Staphylococcus sp, Micrococcus sp and Escherichia coli sp. The findings of this study are supported by numerous studies; The fact that aphids are becoming increasingly recognized as pests stems from the need to conduct additional research on them so that we can gain a deeper understanding of how aphids are interacting with their symbionts and how their eco-evolutionary patterns interact.
Special thanks are extended to the Microbiology Laboratory of King Abdul-Aziz University (KAU), Jeddah Province, Saudi Arabia, for providing the research equipment necessary as well as for cooperating with the author over the course of the research period. The author expresses her sincere gratitude to the Laboratory for its support during the entire research period. The author would also like to thank the Farms and Factory of Bin Salman for Taif Rose in the city of Taif, Kingdom of Saudi Arabia for their assistance in collecting aphids during the experiment period.
The datasets generated during the current study are available in the NCBI database repository, persistent web links or accession numbers to datasets can be found in Table 1.

  1. Abd-Ella, A.A. (2015). Effect of several insecticides on pomegranate aphid, Aphis punicae (Passerini) (Homoptera: Aphididae) and its predators under field conditions. EPPO Bull. 45: 90-98.

  2. Ali-Reza, J., Azadeh, K., Mehrdad, M. and Esmaeil, M. (2012). Determining Morphological Traits and Genetic Diversity of Rose Aphids using RAPD and RFLP-PCR Molecular Markers. [(ed.) Farhad, N.)]. International Conference on Applied Life Sciences. 66 (Intech Open).

  3. Ateyyat M. (2008). Culturable bacteria associated with the guts of pea aphid, Acyrthosiphum pisum (Homoptera: Aphididae). J. Entomol. 5: 167-175.

  4. Al-Kallabe, H.H., Mohammed, A.A. and KareemM, A.A. (2023). Morphological variations of green peach aphid Myzus persicae (Sulzar 1776) (Hemiptera: Aphididae) from different areas of Iraq. J. Kerbala Agric. Sci. 10: 113-124.

  5. Aksoy, H.M. and Ozman-Sullivan, S.K. (2008). Isolation of Bacillus megaterium from Aphis pomi (Homoptera: Aphididae) and assessment of its pathogenicity. J. Plant Pathol. 90: 449-452.

  6. Ayoubi, A., Talebi, A.A., Fathipour, Y. and Mehrabadi, M. (2020). Coinfection of the secondary symbionts, Hamiltonella defensa and Arsenophonus sp. contribute to the performance of the major aphid pest, Aphis gossypii (Hemiptera: Aphididae). Insect Sci. 27: 86-98.

  7. Blackburn, M.B., Gundersen-Rindal, D.E., Weber, D.C., Martin, P.A.W. and Farrar, R.R. (2008). Enteric bacteria of field- collected Colorado potato beetle larvae inhibit growth of the entomopathogens Photorhabdus temperata and Beauveria bassiana. Biol. Control. 46: 434-441.

  8. Blackman, R.L. and Eastop, V.F. (1984). Aphids on the World’s Crops: Identification and Information Guide. John Wiley Sons, London. 476 p.

  9. Brinza, L., Viñuelas, J., Cottret, L., Calevro, F., Rahbé, Y., Febvay, G., Duport, G., Colella, S., Rabatel, A., Gautier, C., Fayard, J.M., Sagot, M.F., Charles, H. (2009). Systemic analysis of the symbiotic function of Buchnera aphidicola, the primary endosymbiont of the pea aphid Acyrthosiphon pisum. C. R. Biol. 332: 1034-1049.

  10. Dixon, A.F.G., Kindlmann, P., Lep, J. and Holman, J. (1987). Why there are so few species of aphids, especially in the tropics?  Am. Nat. 129: 580-592.

  11. Dunbar, H.E., Wilson, A.C., Ferguson, N.R. and Moran, N.A. (2007). Aphid thermal tolerance is governed by a point mutation in bacterial symbionts. PLoS Biol. 5: e96.

  12. Fuchs, J.G. (2010). Interactions Between Beneficial and Harmful Microorganisms: From the Composting Process to Compost Application. In: Microbes at Work: From Wastes to Resources [(eds.) Insam, H., Franke-Whittle, I. and Goberna, M.]. Springer Verlag, Berlin Heidelberg, Chapter 11, pp. 213-229. 

  13. Gündüz, E.A. and Douglas, A.E. (2009). Symbiotic bacteria enable insects to use a nutritionally inadequate diet. Proc. Biol. Sci. 276: 987-991.

  14. Gerardo, N.M., Altincicek, B., Anselme, C. (2010). Immunity and other defenses in pea aphids, Acyrthosiphon pisum. Genome Biol. 11-21.

  15. Hawrył, M., Skalicka-Woźniak, K., Świeboda, R., Niemiec, M., Stępak, K., Waksmundzka-Hajnos, M., Hawrył, A. and Szymczak, G. (2015). GC-MS fingerprints of mint essential  oils. Open Chem. 13: 1326-1332.

  16. Haynes, S., Darby, A.C., Daniell, T.J., Webster, G., Van-Veen, F.J., Godfray, H.C., Prosser, J.I. and Douglas, A.E. (2003). Diversity of bacteria associated with natural aphid populations. Appl. Environ. Microbiol. 69: 7216-7223.

  17. Jayma, L.M. and Ronald, F. (1992). L. Macrosiphum euphorbiae (Thomas) (Department of Entomology). Honolulu, Hawaii. Updated by: J.M. Diez April 2007.

  18. Karlik, J.F. and Tjosvold, S.A. (2003). Integrated pest management (IPM) for roses. Encyclopedia of Rose Science. Elsevier Science.

  19. Lewis, Z. and Lizé, A. (2015). Insect behaviour and the microbiome. Curr. Opin. Insect Sci. 9: 86-90.

  20. Łukasik, P., Dawid, M.A., Ferrari, J. and Godfray, H.C. (2013). The diversity and fitness effects of infection with facultative endosymbionts in the grain aphid, Sitobion avenae. Oecologia. 173: 985-996.

  21. Ma, Y.J., He, H., Zhao, H. (2021). Microbiome diversity of cotton aphids (Aphis gossypii) is associated with host alternation. Sci. Rep. 11: 5260.

  22. Mittné, V., Thieme, T., Günther, M., Neinhuis, C. and Voigt, D. (2023). Comparing morphology of Myzus persicae regarding the taxonomic clarification of a subspecies colonising tobacco. Zool. Anz. 302: 198-216.

  23. Manzano-Marín, A., Szabó, G., Simon, J.C., Horn, M. and Latorre, A. (2017). Happens in the best of subfamilies: Establishment and repeated replacements of co-obligate secondary endosymbionts within Lachninae aphids. Environ. Microbiol. 19: 393-408.

  24. Moran, N.A., Russell, J.A., Koga, R. and Fukatsu, T. (2005). Evolutionary relationships of three new species of Enterobacteriaceae living as symbionts of aphids and other insects. Appl. Environ. Microbiol. 71: 3302-3310.

  25. Oliver, K.M. and Perlman, S.J. (2020). Chapter Eight-Toxin-Mediated Protection against Natural Enemies by Insect Defensive Symbionts in Advances in Insect Physiology [(eds.) Oliver, K.M. and Russell, J. A.] 277-316 (Academic Press).

  26. Singh, R. and Singh, G. (2020). Aphids in Ecofriendly Pest Management for Food Security (ed. Omkar) 105-182 (Academic Press).

  27. Singh, P., Dhal, M.K. and Sagar, S.K. (2014). Experimental investigation on nutritional variation in rose (Rosa damascene) plant foliage: Effect of pest infestation. Int. J. Sci. Res. Publ. 4: 1-12.

  28. Wipfler, B., Pohl, H., Yavorskaya, M.I., Beutel, R.G. (2016). A review of methods for analysing insect structures-The role of morphology in the age of phylogenomics. Curr. Opin. Insect Sci. 18: 60-68.

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