Ensete workshop with genomics data as part of GCRF BBSRC project lead by Royal Botanic Gardens Kew organized by Wolkite University, Addis Ababa Universities and others
Heslop harrison dessalegnethiopiafeb2020withmeetingtitle
1. Ensete genomics: diversity,
evolution and potential
Enhancing exploitation of the sustainable,
diverse Ethiopian starch crop
Presented by Pat Heslop-Harrison phh@molcyt.com
www.molcyt.org
2. International workshop and conference: Research on Enset and its Agri-system
Highlighting the outcomes and impact of research undertaken by the GCRF Enset, Enset
IFLIP and Enset Agri-systems project partners and collaborators funded by BBSRC-GCRF
Hosted by Wolkite University, Wolkite, SNNPR-Ethiopia in collaboration with Ethiopian
Biodiversity Institute, Addis Ababa University, Hawassa University, Leicester University
and RBG, Kew (UK)
February 10-11 2020
3rd Pathway Meeting towards the Enset Centre of Excellence (After Addis Ababa 2016,
Hawassa 2018)
Venue: Dessalegn Lodge
3. Some references!
Micronutrient composition and microbial community analysis across diverse landraces of the
Ethiopian orphan crop enset. Solomon Tamrata, James S. Borrell, Manosh K. Biswas, Dawd
Gashue, Tigist Wondimua, Carlos A. Vásquez-Londoñof, Pat J.S. Heslop-Harrison, Sebsebe
Demissew, Paul Wilkin and Melanie-Jayne R. Howes bioRxiv preprint posted online Nov. 8, 2019;
doi: http://dx.doi.org/10.1101/834564
Enset in Ethiopia: a poorly characterized but resilient starch staple. James S. Borrell, Manosh K.
Biswas, Mark Goodwin, Guy Blomme, Trude Schwarzacher, J. S. (Pat) Heslop-Harrison, Abebe M.
Wendawek, Admas Berhanu, Simon Kallow, Steven Janssens, Ermias L. Molla, Aaron P. Davis,
Feleke Woldeyes, Kathy Willis, Sebsebe Demissew and Paul Wilkin Annals of Botany 123: 747–
766, 2019. doi: http://dx.doi.org/10.1093/aob/mcy214
www.ensete-project.org
4. International workshop and conference:
Research on Enset and its Agri-system
Highlighting outcomes and impact of research undertaken by
the GCRF Enset, Enset IFLIP and Enset Agri-systems project
partners and collaborators funded by BBSRC-GCRF
Hosted by Wolkite University, Wolkite, SNNPR-Ethiopia in
collaboration with Ethiopian Biodiversity Institute, Addis
Ababa University, Hawassa University, Leicester University and
RBG, Kew (UK)
3rd Pathway Meeting towards the Enset Centre of Excellence
(After Addis Ababa 2016, Hawassa 2018)
Manosh Biswas
8. GBS – Genotyping By Sequencing protocol
Measures all the genetic variation
How different are cultivars? And wild accessions?
Which genetic variants link to agronomic traits,
geography, disease & abiotic stress resistance, yield
& quality traits? Breeding for now & the future.
Sequencing outsourced to
9. 113,075 SNP sites genotyped in at least 50%
of the samples, each with average of 34 tGBS
reads/SNP/genotyped sample
10. Genetic diversity and population structure of wild and cultivated Ensete collected all over the Ethiopia
K=3
Admixture model
12. Genetic diversity and population structure of wild and cultivated Ensete collected all over the Ethiopia
All result to be place here before Kew meeting……………………………..
K=6
Admixture model
14. Disease sample raw reads align against whole
genome of Xanthomonas sp. Blast hit
distribution and genome coverage.
BacterialgenomeHitposition(bp)
Hit count
15. Microbial community in kocho fermentation
Acetobacter, Lactobacillus and Bifidobacterium predominate
Microbial fermentation improves digestibility, quality or safety
Impacts food security and public health
16. Microbial community in kocho fermentation
Acetobacter, Lactobacillus and Bifidobacterium predominate
Microbial fermentation improves digestibility, quality or safety
Impacts food security and public health
18. Comprehensive landscaping of microsatellite in Enset (Ensete ventricosum) genome and web-based marker resource development
PCR profile for 48 enset landraces by three EMM markers. (M: Hyper Ladder 1; lane 1-48 enset
landraces; lane 49 and 50 as control use Enset sp and Musa sp )
4% Agarose gel
19. Comprehensive landscaping of microsatellite in Enset (Ensete ventricosum) genome and web-based marker resource development
Comparative microsatellite frequency distribution in four Ensete ventricosum genomes. (a)motif type
distribution, (b) motif class (Class I >20 bp and Class II ≤20 bp) distributions,
21. Comprehensive landscaping of microsatellite in Enset (Ensete ventricosum) genome and web-based marker resource development
22. Comprehensive landscaping of microsatellite in Enset (Ensete ventricosum) genome and web-based marker resource development
Bedadeti Derea JungleSeeds Onjamo Over all
No of SSR 105347 93180 115315 97338 411180
Primer modelling successful 68559 52570 51844 55699 228672
% of primer modelling success 65 56 45 57 56
Non redundant primers 61958 49258 47399 51789
210404
(154586)*
% Of redundant primers 10 6 9 7 27
No of polymorphic markers (in silico) 41531 36923 33047 38284 37446
No of transferable markers (in silico) 52112 46305 36979 48369 45941
Primer modelling and in silico characterization
Number of unique primer pairs
23. 34 Poly, expected
band
40 pairs of unique
116 Pairs Primer
Comprehensive landscaping of microsatellite in Enset (Ensete ventricosum) genome and web-based marker resource development
PCR profile of the 15 EnSSR markers from their wet-lab validation.
101586
non-redundant primer
Filter
1. non annotated
2. Transferable less than 95%
clustered based on their
functions/or gene
PCR analysis
24. Comprehensive landscaping of microsatellite in Enset (Ensete ventricosum) genome and web-based marker resource development
25. Comprehensive landscaping of microsatellite in Enset (Ensete ventricosum) genome and web-based marker resource development
Common and specific EMM markers in
(a) enset cultivars and
(b) Musa species.
28. Home page
Research News & Events PartnersResources
Information db
Literature db
Gene db
Tandem repat
Molecular marker
Diversity db
Transposable
Transcription Factor
About Us
Marker search results
TR search results
TF search results
Figure 1. Feature diagram showing the overall functionalities of Ensete Knowledgebase (EKB). Screenshots of EKB web pages with five distinct features accessible from the navigation bar on
top: resources, research, news & events, partners and about us. List of the eight databases are listed as sub-menu in resources. Enset Information Data Base; Enset Diversity Data Base;
Enset Literature Data Base; Enset Tandem Repeats Data Base; Enset Gene Data Base; Enset Transcription Factor Data Base; Enset Transposable Element Data Base; Enset Molecular Marker
Data Base.
http://enset-project.org/index.html
29. Ensete knowledge base: a comprehensive database fill the knowledge gap of Ethiopian starch crop Ensete as well as model for other plant
species.
Figure: Architecture of Enset information database
(EnIfo@base)
Figure: Architecture of Enset literature database
(EnLit@base)
Architecture of Other 6 data base not shown here
33. i) assess Ensete genetic diversity
ii) conserve the Ensete gene pool
iii) identify pathogens and soil biota
iv) compare Ensete genome and other species
iv) apply genomics tools and tissue culture to
support breeding and use biodiversity
v) document and make information accessible.
38. Genetics & Genomics Resources Development to Enhance Exploitation Ethiopian Starch Crop Enset
for Support Livelihoods
•Distribution central, eastern & southern
Africa Only domesticated in Ethiopia. ~ 500
varieties, starch source 20 million people,
supplies fibres, medicines, animal
fodder & staple food source
➢Little known about
➢Genetics,
➢Genome,
➢Diversity.
➢Huge knowledge gaps
➢Minimal research
➢We developed
➢ Fill critical knowledge gap Enset
➢ Develop a online genomic
resources molecular marker,
genotypic Phenotypic information
➢ Model of other plant species
http://enset-project.org/
39. Enset genetic diversity is secured, valued and used
to support livelihoods through sustainable
production and improved food and nutrition
security.
• i) assess Ensete genetic diversity
• ii) conserve the Ensete gene pool
• iii) identify pathogens and soil biota
• iv) compare Ensete genome and other species
• iv) apply genomics tools and tissue culture to
support breeding and use biodiversity
• v) document and make information accessible.
42. ~1.5cm
Genome-wide profiling, landscaping and comparison of Repetitive Elements diversity in Ensete spp.
Work flow for best chromosome preparation for Enset spp.
1. Trim old root
2. Add potting mixture
3. Watering properly (every 2days)
4. Harvest root after 2 to 3 weeks
After 2 weeks of
trim
and watering
Before Re Potting Harvest
~1.5 cm root
Root preserved
3:1 (Ethanol:
Acetic acid)
Incubate in
Hydroxyquinoline
24h (4h RT+20h 4C)
Root wash in
water
Chromosome preparation and fluorescent analysis carried out
following the protocol developed by Dr. Trude Schwarzacher (2016)
References: Schwarzacher T. Preparation and fluorescent analysis of plant
metaphase chromosomes. InPlant Cell Division 2016 (pp. 87-103). Humana Press,
New York, NY.
43. Wash 5min in
1X Enzyme
buffer
Further wash
5min in 1X
Enzyme buffer
Incubate in
Enzyme at 37C for
180min
Incubate in 1X
Enzyme buffer
4C for 48 to72h
Genome-wide profiling, landscaping and comparison of Repetitive Elements diversity in Ensete spp.
Work flow for best chromosome preparation for Enset spp.
Perfectly digested root
Enzyme solution 37C 180min
Enzyme buffer 48h
Metaphase
2n=18
Chromosomes
Protocol:SchwarzacherT.(2016)
44. Root
Harvest
time
Enzyme
solution
Digestion
time
Incubation 4°
with enzyme
buffer
9:00am ¼ strength 30min 24h
9:30am ½ strength 60min 48h
10:00am Full strength 90min 72h
10:30am 120min 96h
11:00am 150min
11:30am 180min
12:00am 210min
Genome-wide profiling, landscaping and comparison of Repetitive Elements diversity in Ensete spp.
Methods standardization for chromosome preparations
Root Harvest month
12/12/2018 December
05/02/2019 February
11/02/2019 February
21/05/2019 May
01/06/2019 June
45. Genome-wide profiling, landscaping and comparison of Repetitive Elements diversity in Ensete spp.
Early prophase Early metaphase
or pro-metaphase
Metaphase
2n=18 chromosomes
DAPI staining of Ensete ventricosum chromosomes (2n=18)
Protocol:SchwarzacherT.(2016)
46. Genome-wide profiling, landscaping and comparison of Repetitive Elements diversity in Ensete spp.
(a) Ensete ventricosum mitotic metaphase. In situ hybridization with 18S (green) and 5S (red) probe.
(b) Karyotype analysis of Ensete ventricosum based on the size and signal patterns.
a
b
Two major and one minor pairs of 18S rDNA
One pair of 5S rDNA
Protocol:SchwarzacherT.(2016)
47. Genetics & Genomics Resources Development to Enhance Exploitation Ethiopian
Starch Crop Enset for Support Livelihoods [Dr. Manosh K Biswas ]
Out come from this project:
Fill critical knowledge gap Enset
Develop a online genomic resources
molecular marker, genotypic
Phenotypic information
Model for other plant species
➢Little known about Enset: Genetics, Genomics and Population Diversity. http://enset-project.org/
Funded by: Research Partners:
48. Genomics changes study of
taxonomy, phylogeny, diversity
Revolutionizes crop genetics
and breeding
Exploits Musa as a reference
i) assess Ensete genetic diversity
ii) conserve the Ensete gene pool
iii) identify pathogens and soil biota
iv) compare Ensete genome and other
iv) apply genomics tools and tissue cult
support breeding and use biodiversity
v) document and make information acc
49. 1000 bp
800 bp
Azhar M, Heslop-Harrison JS. Genomes,
diversity and resistance gene analogues in
Musa species. Cytogenetic and genome
research. 2008 May 7;121(1):59-66.
i) assess Ensete genetic diversity
ii) conserve the Ensete gene pool
iii) identify pathogens and soil biota
iv) compare Ensete genome and other species
iv) apply genomics tools and tissue culture to
support breeding and use biodiversity
v) document and make information accessible.
51. The Global Musa Genomics
Consortium
• To assure the
sustainability of banana
as a staple food crop by
developing an integrated
genetic and genomic
understanding, allowing
targeted breeding,
transformation and
more efficient use of
Musa biodiversity
52. • Vision: Musa genetic diversity is secured,
valued and used to support livelihoods
through sustainable production and improved
food and nutrition security.
• Actions aim to i) assess Musa genetic
diversity, ii) conserve the entire Musa gene
pool, iii) maximize use of genetic diversity, iv)
apply genomics tools to banana to better
support breeding and v) document and make
information accessible.
53. Genomics changes study of
taxonomy, phylogeny, diversity
Revolutionizes crop genetics
and breeding
Exploits Musa as a reference