Abstract
Coffee is an important agricultural export commodity in many Asian, African and Latin American countries. It provides a livelihood for more than 125 million people worldwide. The genus Coffea comprises more than 125 species of which only 2 species Coffea arabica (arabica coffee) and C. canephora (robusta coffee) are commercially cultivated for beverage production. Climate change presents unprecedented challenges to sustainable coffee cultivation on a global scale. Besides, both arabica and robusta coffee are subjected to biotic and abiotic stress conditions that limit their production and productivity. Although conventional breeding approaches are followed to attenuate some of these problems, they were slow and time-consuming. Furthermore, arabica coffee has a narrow genetic base and needs to be addressed immediately by incorporating diverse germplasm with potential agronomic values, using focused breeding programs. In both arabica and robusta, the full potential of germplasm has not been exploited. Recent progress in the biotechnological field particularly on molecular markers and new generation sequencing platform hold great promise to discover new genes and accelerate coffee breeding programs. The progress achieved in coffee transgenic technology also has unparalleled opportunities to develop new cultivars with improved agronomic traits. Recent progress in gene editing techniques has a significant impact on the genetic improvement of coffee. This chapter provides current and innovative information about coffee’s origin and distribution, genetic resource diversity and conventional breeding strategies and application. Current advances in the field of tissue culture, genetic transformation, gene editing and molecular breeding are also discussed.
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Appendices
Appendices
1.1 Appendix I: Research Institutes Relevant to Coffee
Institution | Specialization and research activities | Contact information and website |
---|---|---|
Central Coffee Research Institute, Coffee Board, India | Agronomy, soil sciences, plant protection, plant breeding and genetics, Biotechnology and tissue culture, crop physiology, postharvest technology and coffee quality analysis | Central Coffee Research Institute, Balehonnur, Dist Chikamagalur-577,117 Karnataka, India Phone: 08265-243029 Fax 08265-243143 |
CeniCaffe Colombia | Agronomy, soil sciences, plant protection, biotechnology | National Center for Coffee Research – Cenicafé Planalto Head quarters,via Chinchiná-Manizales. Manizales (Caldas) – Colombia Tel .: PBX +57 (6) 8506550 Fax +57 (6) 8504723 AA 2427 Manizales cenicafe@cafedecolombia.com |
Kenya Agricultural & Livestock Research Organization | Agronomy, plant protection, plant breeding and coffee quality analysis | Kenya Agricultural and Livestock Research Organization, Kattegat Rd, Loresho Nairobi Kenya PO Box 57811, City Square, NAIROBI, 00200, Kenyahttp://www.kalro.org/crops_contacts |
Coffee Institute of Costa Rica (Icafe) | Sustainable coffee production | ICAFE 400 meters north of the San Pedro de Barva Catholic Church, Heredia. 280-3011, Barva, Heredia, Costa Rica Tel: +506 2243-7800; Fax: +506 2243-7554 |
Indonesian Coffee and Cocoa Research Institute | Agronomy, soil sciences, plant protection, tissue culture, machinery, processing, and quality control | Gebang, Nogosari, Rambipuji, Jember Regency, East Java 68175, Indonesia |
Jimma Agricultural Research Center, Ethiopia | Plant protection, soil fertility, crop production and integrated watershed management | Jimma Agricultural Research Center Tel: (+251) 471-128020; Fax: (+251) 471-111999 PO Box 192, Jimma Zone,Oromia Region |
National Coffee Research Institute (NaCORI), Uganda | Plant breeding and evaluation, micropropagation and germplasm conservation | National Coffee Research Institute Katosi Road PO Box 185, Mukono, Uganda 256-414-697659 |
Embrapa Café Brazil | Agronomy, plant protection, breeding and genetics , biotechnology and tissue culture, crop physiology, postharvest and quality analysis | Park Biological Station, PqEB, Brasília, DF 70770-901, Brazil Tel: +55 61 3448-4433; Fax: +55 61 3448-4890 |
Centre de coopération internationale en recherche agronomique pour le (CIRAD) , France | Sustainable development of tropical and Mediterranean regions | Avenue Agropolis, 34398, Montpellier Cedex 5, France Tel: +33 4 67 61 58 00 |
IRD, France | Coffee biotechnology | Florence Morineau IRD 911 avenue Agropolis, BP 64501 34394 Montpellier cedex 5 Tel : +33 (0)4 67 41 61 00 Fax : +33 (0)4 67 41 63 30 Courriel : delegation.occitanie@ird.fr |
University of Trieste | Molecular biology, functional genomics and physiology | Department of Life Science, University of Trieste,Piazzale Europa, 1 – 34127 – Trieste, Italia |
1.2 Appendix II: Genetic Resources of Coffee
Cultivar | Important traits | Cultivation location |
---|---|---|
S.795 | Tall arabica variety with very high yield potential. Susceptible to leaf rust but produces excellent cup quality | India |
Sln.5A | Tall arabica hybrid involving Ethiopian/Sudanese variety with good yield potential. Produces more B grade beans of high cup quality. Shows field tolerance to leaf rust | India |
Sln.5B | Tall arabica variety with very good yield potential. Exhibit tolerance to leaf rust with good cup quality | India |
Sln.6 | A robusta arabica hybrid with vigorous growth and good yield potential. Show tolerance to leaf rust and CBD. Produces good cup quality | India |
Sln.9 | Tall arabica hybrid involving HDT and Tafarikela with early ripening and good yield potential. Produces very good cup quality | India |
Chandragiri | Hybrid between Villasarchi and HDT this dwarf arabica hybrid with good yield potential and high tolerance to leaf rust. Produces big size beans with good cup quality | India |
Kents | A natural mutant of Typica discovered in India. High productivity but susceptible to leaf rust. Very good cup quality | India, Kenya |
SL28 | Tall, drought tolerant and very good cup quality potential, but susceptible to major diseases | Kenya, Malawi, Uganda, Zimbabwe |
SL34 | Tall arabica cultivar with high yield potential and exceptionally good cup quality but susceptible to major diseases | Kenya |
Ruiru11 | High yielding, dwarf hybrid tolerant to coffee leaf rust and resistant to CBD. Produces good cup quality | Kenya |
Batian | High yields, tolerance to coffee leaf rust, resistance to CBD, bold bean with good cup quality | Kenya |
Caturra | Natural bourbon mutant, dwarf variety with good yield potential. Susceptible to leaf rust and CBD but with good cup quality | Brazil, Central America |
Catuai | Dwarf compact arabica variety with good yield potential. Highly susceptible to leaf rust and CBD. Produces good cup quality | Brazil, Costa Rica. Guatemala, Honduras |
Mundonovo | A natural hybrid between Bourbon and Typica the variety produces vigorous and productive plant with good quality cup but susceptible to major diseases | Brazil |
Obata | Hybrid between HDT and Villasarchi this is known as Sarchimor elsewhere. Moderate to high yield with tolerance to leaf rust | Brazil, Costa Rica |
IAPAR 59 | Dwarf arabica hybrid with good yield potential. Show tolerance to leaf rust and nematodes but susceptible to CBD. Cup quality is low | Brazil |
Catimor | A dwarf hybrid between HDT and Caturra developed in Portugal in 1959 and cultivated in many countries with very high yield potential. Show variable resistance to leaf rust in different countries. Good cup quality | India, Brazil, Colombia, Costa Rica |
Tekisic | A variety selected from bourbon known for excellent cup quality in the highest altitudes | El Salvador, Guatemala |
Catisic | High High yields, tolerance to coffee leaf rust, adaptable to warm and acidic soil, susceptible to CBD and poor cup quality | El Salvador |
Cuscatleco | Dwarf compact arabica variety with high yield potential. Show resistance to leaf rust and nematode. Produces good cup quality | El Salvador |
Centroamericano | Dwarf F1 arabica hybrid with very high yield potential Exhibit resistance to leaf rust and tolerance to CBD. Produces good cup quality | Costa Rica, El Salvador, Guatemala and Honduras |
RAB C15 | High yielding tall variety selected from Indian cultivar Sln.6. Show resistant to rust and coffee berry disease | Rwanda |
Castillo | High yielding coffee variety resistant to coffee leaf rust | Colombia |
Anacafe | Dwarf high yielding hybrid between Catimor and Pacamara with good cup quality. Plants show resistance to leaf rust but susceptible to CBD | Guatemala |
Evaluna | Dwarf introgressed F1 arabica hybrid with very good yield potential. Susceptible to leaf rust but tolerant to CBD. Produces very good cup quality | Central America |
Nayarita | Dwarf F1 hybrid involving Ethiopian arabica with high yield potential. Show resistance to CBD but susceptible to coffee leaf rust. Very good cup quality | Nicaragua |
Starmaya | Dwarf arabica hybrid involving Marsellesa and Ethiopian arabica with very high yield potential with resistance to leaf rust. Very good cup quality | Nicaragua |
Marsellesa | Introgressed dwarf Sarchimor variety with very good yield potential. Resistant to leaf rust and tolerant to CBD. Produces good cup quality with high acidity | Nicaragua |
Limani | Introgressed dwarf Sarchimor variety with good yield potential. Tolerant to leaf rust and produces good cup quality | Puerto Rico |
Bourbon | Genetically important arabica variety, with medium yield potential, susceptible to both leaf rust and CBD. Produces excellent cup quality | El Salvador, Guatemala, Honduras and Peru |
Panamian Geisha | Tall arabica landrace with medium yield potential. Tolerant to leaf rust but susceptible to CBD. Produces exceptionally good cup quality | Panama |
K7 | Tall arabica variety with good yield potential. Show tolerance to leaf rust and CBD with good cup quality | Kenya, Tanzania |
KP 423 | Selected from Kent, this tall arabica variety has high yield potential. Show tolerance to drought and leaf rust but susceptible to CBD. The cup quality is poor | Uganda |
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Mishra, M.K. (2019). Genetic Resources and Breeding of Coffee (Coffea spp.). In: Al-Khayri, J., Jain, S., Johnson, D. (eds) Advances in Plant Breeding Strategies: Nut and Beverage Crops. Springer, Cham. https://doi.org/10.1007/978-3-030-23112-5_12
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