Molecular diversity in honey bees using simple sequence
MOLECULAR DIVERSITY IN HONEY BEES USING SIMPLE
SEQUENCE REPEATS (SSR) , CYTOCHROME OXIDASE–I
(CO-I) AND CYTOCHROME OXIDASE –II (CO-II)

                 Seminar II (PLPT-695)
By
Khalid Ali Khan                    Supervisor : Dr. Ahmad bin Abdullah
(Ph.D. Student) 432108568                       Al Ghamdi




Department of Plant Protection ,
King Saud University -Riyadh
A lot of variations among the organisms is found. The
organisms are classified on the basis of these variations.
There are different parameters/markers to measure the
diversity in the organisms. Some important markers are:

1-Morphological Markers

Organisms are selected on the base of appearance .re.g.
pigmentation etc.
Maarkers




http://tyanto.wordpress.com/apiary/     http://www.padil.gov.au/pests-and-
bee_comparison500/                      diseases/Pest/Main/135533/8764#
2-Chemical Markers

Organisms are grouped/classified on the base of biochemical
properties. e.g. Different humans have different blood groups.


 3-Molecular Markers

 A molecular marker is a
 DNA sequence with a known location
 on a chromosome ( Kumar,2009).


                                    The DNA sequence in individuals differs
                                    (Polymorphism) and individuals are
                                    classified on the basis of these
                                    variations in the sequence of DNA.


 *http://scienceaid.co.uk/biology/genetics/inheritance.html
Some Important Molecular Markers



a) Restriction Fragment Length
   Polymorphism(RFLP)

b) Randomly Amplified Polymorphic
   DNA(RAPD)

c) Simple Sequence Repeats (SSR)/
   Microsatellites.

d) Amplified Fragment Length
   Polymorphism(AFLP)

e) Single Nucleotide Polymorphism (SNP)

                                          http://cnx.org/content/m26561/latest/
Microsatellites/SSR

 Short segments of DNA
consisting of repeated
sequences, sandwiched
between flanking sequences.

 Present in the non – coding
region of DNA so they do not
have any apparent phenotypic
effects.

Mononucleotide SSR (A)11:
AAAAAAAAAAA

Dinucleotide SSR (GT)6:
GTGTGTGTGTGT

Trinucleotide SSR (CTG)4: CTGCTGCTGCTG
*http://www.coursework4you.co.uk/essays-anddissertations/sample69.php
Mitochondrial DNA
 It is located in mitochondria,( an
  organelle in eukaryotic cells that
  convert the chemical energy from
  food into adenosine triphosphate
   (ATP).

 mtDNA CO I – CO-II gene
  region of Apis mellifera
  exhibit high degree of
  genetic variability within
  and among the A.mellifera
  lineage.
  (Collet et al.2006; Ozdil et al.2009)

 mtDNA is inherited solely from the
  mother(Avise,2004). Only one worker
  bee is required to genetically          http://en.wikipedia.org/wiki/File:Mit
  characterize mtDNA in colony            ochondrial_DNA_en.svg
Diversity in Honey Bees(Apis mellifera)

Morphometery has long
been the only method used
to study the variation among
the honey bee populations.

Ruttner(1988) published a
report on the taxonomy of
this species , based on the
analysis of morphological
characters .

Morphometery has shown that Apis mellifera has
differentiated into 26 subspecies.

On the basis of specific behavior and ecological
characteristics these subspecies are distributed into
five lineages
                              http://presstige.cz/ztresnaku/honey-bee-life-cycle&page=5
Distribution of Apis mellifera lineage



A-Lineage (Africa )
M-Lineage (Western Europe)

C- Lineage
(South Eastern Europe)
                              Lineage- C
O-Lineage
Near East and Middle East             Lineage - O

Y-Lineage(Ethopia)




(Ruttner, 1988;Ferreira et al.2008)
(Frank et al.2000)
Molecular Diversity of Apis mellifera in Africa

Frank et al.(2001) analyses 738 honey bee colonies from 64
localities in 21 African countries by using Dra-I RFLP of CO I
– CO-II mitochondrial region .

mtDNA of African honey bee
appeared to be composed of
highly divergent lineage.

The African lineage “A” was present
in all the localities except
NORTH EASTERN AFRICA.

In North eastern Africa two newly described
lineage “O” and “Y” were observed in high
proportion.

Lineage “A” was present in high proportion in honey
bee population from the ibernian Peninsula and Sicily.
Range of Divergence percentage within and
 between lineage




Table : Range of divergence within and between lineage using 40
complete DNA sequence of COI-CO II inter-genic region.
(Frank, et al.2001)
Molecular Diversity of Apis mellifera in
United States of America

 Delaney ( 2009) analyzed the genetic diversity of honey bees in
  two regions of United States.

 The western commercial breeding population (WCBP) and the
  southeastern commercial breeding population (SCBP) were
  sampled.

 Genetic diversity was analyzed by using DraI restriction
  fragment length polymorphism of the COI - COII mitochondrial
  region and 10 polymorphic microsatellite loci.

 The C-lineage honey population was dominant in both regions.

 The frequency of M- lineage was low .

 The A- lineage was also found in the southeastern commercial
  breeding population (SCBP).
Molecular diversity in honey bees using simple sequence
PURPOSE OF STUDY



The studies on genetic variation of Apis mellifera using SSR
and DNA sequence have not been extensively conducted in
Kingdome of Saudi Arabia.

Therefore this study will focus on genetic diversity in honey
bees (Apis mellifera) by using

1- Sequencing of mtDNA CO-I and CO-II intergenic region

2-Simple Sequence Repeats/SSR Markers
MATERIALS AND METHODS

Collection of bee samples

Honey bee samples will be collected from different
localities in Kingdom of Saudi Arabia .

About 100-200 worker bees will be collected from each
location and these bees will be put in a sample kit
(containing vials with 95% ethanol) until the extraction of
DNA.
 DNA Extraction

 DNA will be extracted from honey bee worker thoracic
 region by using the Puregene DNA Isolation Kit D-5000
 A(Qiagen Valencia, CA).
mt DNA CO-I , CO-II intergenic region sequencing

 The mt DNA CO-I , CO-II intergenic region will be amplified by using

    E2 (5’- GGC AGA ATA AGT GCA TTG-3’) and
    H(5’-CAA TAT CAT CAT TGA TGA CC-3’) PCR primer
    (Garney et al.1993)

 PCR will be conducted with 2 µl of the extracted DNA for total
  volume of 50 µl.

 Amplicons will be separated by gel electrophoresis in 1 % agarose .

 The amplified DNA will be purified using Nanosep Centrifugal
  devices (Pall life Science Ann, Arbor, MI ) and sent to the laboratory
  for DNA sequencing.

 Mitotypes will be assigned and compared by conducting Basic
  Local Alignment Search Tool ( BLAST) of DNA sequence available
  on Gene Bank.
Microsatellites/ SSR markers
The diversity in honey bees will be studied through microsatellites/
SSR markers . Twelve microsatellites 12 loci out of 75 (A7, A28, A1
13, B124, A43, A24 , A88, A14, A76, A107, A29 and A35) will be
chosen to perform the study . (Estoup et al. 1993).These loci have
shown good proxies for assessing genetic variations in A.mellifera




           Estoup et al. 1995
 PCR amplification of above mentioned loci will be carried out
  as per Estoup et al.(1995). The sequences of primers and
  optimal PCR conditions are given for each locus in previous
  table.

 Amplicons will be separated by gel electrophoresis in 1 %
  agarose .


 The microsatellites fragment size will be scored using
  GeneMapper software .
The phylogenetic relationship among the
different honey bee lineage in
Kingdom of Saudi Arabia will be
constructed .


The molecular diversity in honey bee through
SSR will also be measured in Kingdom of Saudi
Arabia .




                                           http://www.extension.org/pages/58650
                                           /proceedings-of-the-american-bee-
                                           research-conference-2011
References:

Avise, J.C.2004.Molecular markers,natural history and
         evolution(2nd.ed.) Sinauer Assosiates, Inc.Sunderland,MA.

Collet, T., K. M. Ferreira, M. C. Arias, A.E.E. Soares, and M. A. Del
          Lama. 2006. Genetic structure of Africanized honeybee
          populations (Apis mellifera L.) from Brazil and Uruguay
          viewed through mitochondrial DNA COI-COII patterns.
          Heredity 97: 329-335.

Delaney, D. A.,M.D. Meixner, N.M. Schiff, and W.S. Sheppard.2009.
       Genetic Characterization of Commercial Honey Bee
       (Hymenoptera: Apidae) Populations in the United States by
       UsingMitochondrial and Microsatellite Markers. Ann. Entomol.
       Soc. Am. 102(4): 666-673.
Estoup, A.,L. Garnery, M. Solignac, and J. M.Cornuett .1995.
        Microsatellite Variation in Honey Bee (Apis mellifera L.)
        Populations: Hierarchical Genetic Structure and Test of the
        Infinite Allele and Stepwise Mutation Models. Genetics
        140:679-695.

Estoup,A., M. Solignac, M.Harry, and J. M.Cornuet .19 93
        Characterization of (GT), and (CT), microsatellites in two
        insect species: Apis mllijma and Bombus terrestris. Nucleic
        Acids Res. 21: 1427-1431.

Franck, P., L. Garnery, A. Loiseau, B. P. Oldroyd, H. R.Hepburn, M.
        Solignac, and J. M. Cornuet. 2001. Genetic diversity of the
        honeybee in Africa: microsatellite and mitochondrial data.
        Heredity 86: 420-430.

Garnery, L., M. Solignac, G. Celebrano, and J. M. Cornuet. 1993. A
       simple test using restricted PCR-amplifed mitochondrial-
       DNA to study the genetic-structure of Apis mellifera L.
       Experientia 49: 1016-1021.
Ozdil,F.A.,A.Y.Mehmet,A.Yildiz,and H.G. Hall.2009.Molecular
         characterization of Turkish honey bee populations(Apis
         mellifera ) inferred from mitochondrial DNA RFLP and
         sequence results.Apidologie 40: 570-576.
         RUTTNER, F. 1988. Biogeography and Taxonomy of Bees.
         Springer-Verlag, Berlin.
ACKNOWLEDGEMENT


 Dr. Ahmad Al-Ghamdi   (My Supervisor )
 Dr. Yehya Al-Zakki
 Dr. Javed Ansari
Molecular diversity in honey bees using simple sequence

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Molecular diversity in honey bees using simple sequence

  • 2. MOLECULAR DIVERSITY IN HONEY BEES USING SIMPLE SEQUENCE REPEATS (SSR) , CYTOCHROME OXIDASE–I (CO-I) AND CYTOCHROME OXIDASE –II (CO-II) Seminar II (PLPT-695) By Khalid Ali Khan Supervisor : Dr. Ahmad bin Abdullah (Ph.D. Student) 432108568 Al Ghamdi Department of Plant Protection , King Saud University -Riyadh
  • 3. A lot of variations among the organisms is found. The organisms are classified on the basis of these variations. There are different parameters/markers to measure the diversity in the organisms. Some important markers are: 1-Morphological Markers Organisms are selected on the base of appearance .re.g. pigmentation etc. Maarkers http://tyanto.wordpress.com/apiary/ http://www.padil.gov.au/pests-and- bee_comparison500/ diseases/Pest/Main/135533/8764#
  • 4. 2-Chemical Markers Organisms are grouped/classified on the base of biochemical properties. e.g. Different humans have different blood groups. 3-Molecular Markers A molecular marker is a DNA sequence with a known location on a chromosome ( Kumar,2009). The DNA sequence in individuals differs (Polymorphism) and individuals are classified on the basis of these variations in the sequence of DNA. *http://scienceaid.co.uk/biology/genetics/inheritance.html
  • 5. Some Important Molecular Markers a) Restriction Fragment Length Polymorphism(RFLP) b) Randomly Amplified Polymorphic DNA(RAPD) c) Simple Sequence Repeats (SSR)/ Microsatellites. d) Amplified Fragment Length Polymorphism(AFLP) e) Single Nucleotide Polymorphism (SNP) http://cnx.org/content/m26561/latest/
  • 6. Microsatellites/SSR  Short segments of DNA consisting of repeated sequences, sandwiched between flanking sequences.  Present in the non – coding region of DNA so they do not have any apparent phenotypic effects. Mononucleotide SSR (A)11: AAAAAAAAAAA Dinucleotide SSR (GT)6: GTGTGTGTGTGT Trinucleotide SSR (CTG)4: CTGCTGCTGCTG *http://www.coursework4you.co.uk/essays-anddissertations/sample69.php
  • 7. Mitochondrial DNA  It is located in mitochondria,( an organelle in eukaryotic cells that convert the chemical energy from food into adenosine triphosphate (ATP).  mtDNA CO I – CO-II gene region of Apis mellifera exhibit high degree of genetic variability within and among the A.mellifera lineage. (Collet et al.2006; Ozdil et al.2009)  mtDNA is inherited solely from the mother(Avise,2004). Only one worker bee is required to genetically http://en.wikipedia.org/wiki/File:Mit characterize mtDNA in colony ochondrial_DNA_en.svg
  • 8. Diversity in Honey Bees(Apis mellifera) Morphometery has long been the only method used to study the variation among the honey bee populations. Ruttner(1988) published a report on the taxonomy of this species , based on the analysis of morphological characters . Morphometery has shown that Apis mellifera has differentiated into 26 subspecies. On the basis of specific behavior and ecological characteristics these subspecies are distributed into five lineages http://presstige.cz/ztresnaku/honey-bee-life-cycle&page=5
  • 9. Distribution of Apis mellifera lineage A-Lineage (Africa ) M-Lineage (Western Europe) C- Lineage (South Eastern Europe) Lineage- C O-Lineage Near East and Middle East Lineage - O Y-Lineage(Ethopia) (Ruttner, 1988;Ferreira et al.2008) (Frank et al.2000)
  • 10. Molecular Diversity of Apis mellifera in Africa Frank et al.(2001) analyses 738 honey bee colonies from 64 localities in 21 African countries by using Dra-I RFLP of CO I – CO-II mitochondrial region . mtDNA of African honey bee appeared to be composed of highly divergent lineage. The African lineage “A” was present in all the localities except NORTH EASTERN AFRICA. In North eastern Africa two newly described lineage “O” and “Y” were observed in high proportion. Lineage “A” was present in high proportion in honey bee population from the ibernian Peninsula and Sicily.
  • 11. Range of Divergence percentage within and between lineage Table : Range of divergence within and between lineage using 40 complete DNA sequence of COI-CO II inter-genic region. (Frank, et al.2001)
  • 12. Molecular Diversity of Apis mellifera in United States of America  Delaney ( 2009) analyzed the genetic diversity of honey bees in two regions of United States.  The western commercial breeding population (WCBP) and the southeastern commercial breeding population (SCBP) were sampled.  Genetic diversity was analyzed by using DraI restriction fragment length polymorphism of the COI - COII mitochondrial region and 10 polymorphic microsatellite loci.  The C-lineage honey population was dominant in both regions.  The frequency of M- lineage was low .  The A- lineage was also found in the southeastern commercial breeding population (SCBP).
  • 14. PURPOSE OF STUDY The studies on genetic variation of Apis mellifera using SSR and DNA sequence have not been extensively conducted in Kingdome of Saudi Arabia. Therefore this study will focus on genetic diversity in honey bees (Apis mellifera) by using 1- Sequencing of mtDNA CO-I and CO-II intergenic region 2-Simple Sequence Repeats/SSR Markers
  • 15. MATERIALS AND METHODS Collection of bee samples Honey bee samples will be collected from different localities in Kingdom of Saudi Arabia . About 100-200 worker bees will be collected from each location and these bees will be put in a sample kit (containing vials with 95% ethanol) until the extraction of DNA. DNA Extraction DNA will be extracted from honey bee worker thoracic region by using the Puregene DNA Isolation Kit D-5000 A(Qiagen Valencia, CA).
  • 16. mt DNA CO-I , CO-II intergenic region sequencing  The mt DNA CO-I , CO-II intergenic region will be amplified by using E2 (5’- GGC AGA ATA AGT GCA TTG-3’) and H(5’-CAA TAT CAT CAT TGA TGA CC-3’) PCR primer (Garney et al.1993)  PCR will be conducted with 2 µl of the extracted DNA for total volume of 50 µl.  Amplicons will be separated by gel electrophoresis in 1 % agarose .  The amplified DNA will be purified using Nanosep Centrifugal devices (Pall life Science Ann, Arbor, MI ) and sent to the laboratory for DNA sequencing.  Mitotypes will be assigned and compared by conducting Basic Local Alignment Search Tool ( BLAST) of DNA sequence available on Gene Bank.
  • 17. Microsatellites/ SSR markers The diversity in honey bees will be studied through microsatellites/ SSR markers . Twelve microsatellites 12 loci out of 75 (A7, A28, A1 13, B124, A43, A24 , A88, A14, A76, A107, A29 and A35) will be chosen to perform the study . (Estoup et al. 1993).These loci have shown good proxies for assessing genetic variations in A.mellifera Estoup et al. 1995
  • 18.  PCR amplification of above mentioned loci will be carried out as per Estoup et al.(1995). The sequences of primers and optimal PCR conditions are given for each locus in previous table.  Amplicons will be separated by gel electrophoresis in 1 % agarose .  The microsatellites fragment size will be scored using GeneMapper software .
  • 19. The phylogenetic relationship among the different honey bee lineage in Kingdom of Saudi Arabia will be constructed . The molecular diversity in honey bee through SSR will also be measured in Kingdom of Saudi Arabia . http://www.extension.org/pages/58650 /proceedings-of-the-american-bee- research-conference-2011
  • 20. References: Avise, J.C.2004.Molecular markers,natural history and evolution(2nd.ed.) Sinauer Assosiates, Inc.Sunderland,MA. Collet, T., K. M. Ferreira, M. C. Arias, A.E.E. Soares, and M. A. Del Lama. 2006. Genetic structure of Africanized honeybee populations (Apis mellifera L.) from Brazil and Uruguay viewed through mitochondrial DNA COI-COII patterns. Heredity 97: 329-335. Delaney, D. A.,M.D. Meixner, N.M. Schiff, and W.S. Sheppard.2009. Genetic Characterization of Commercial Honey Bee (Hymenoptera: Apidae) Populations in the United States by UsingMitochondrial and Microsatellite Markers. Ann. Entomol. Soc. Am. 102(4): 666-673.
  • 21. Estoup, A.,L. Garnery, M. Solignac, and J. M.Cornuett .1995. Microsatellite Variation in Honey Bee (Apis mellifera L.) Populations: Hierarchical Genetic Structure and Test of the Infinite Allele and Stepwise Mutation Models. Genetics 140:679-695. Estoup,A., M. Solignac, M.Harry, and J. M.Cornuet .19 93 Characterization of (GT), and (CT), microsatellites in two insect species: Apis mllijma and Bombus terrestris. Nucleic Acids Res. 21: 1427-1431. Franck, P., L. Garnery, A. Loiseau, B. P. Oldroyd, H. R.Hepburn, M. Solignac, and J. M. Cornuet. 2001. Genetic diversity of the honeybee in Africa: microsatellite and mitochondrial data. Heredity 86: 420-430. Garnery, L., M. Solignac, G. Celebrano, and J. M. Cornuet. 1993. A simple test using restricted PCR-amplifed mitochondrial- DNA to study the genetic-structure of Apis mellifera L. Experientia 49: 1016-1021.
  • 22. Ozdil,F.A.,A.Y.Mehmet,A.Yildiz,and H.G. Hall.2009.Molecular characterization of Turkish honey bee populations(Apis mellifera ) inferred from mitochondrial DNA RFLP and sequence results.Apidologie 40: 570-576. RUTTNER, F. 1988. Biogeography and Taxonomy of Bees. Springer-Verlag, Berlin.
  • 23. ACKNOWLEDGEMENT  Dr. Ahmad Al-Ghamdi (My Supervisor )  Dr. Yehya Al-Zakki  Dr. Javed Ansari