In this interview, Mwihaki Mundia, BecA-ILRI Hub’s Communications Officer, sits down with Sita Ghimire, who heads the Brachiaria research and development program at the Biosciences eastern and central Africa – International Livestock Research Institute (BecA-ILRI) Hub, to talk about the origins of this important grass and how it contributes to more milk and meat production in livestock.

Mundia: Maybe you could start by sharing a brief history of Brachiaria grass?

Sita: Brachiaria grass is a tropical forage that is native to Africa. It was introduced to America and Australia in the 1800′s. Through Australia, many species were later introduced to Asia and the south Pacific region. The use of Brachiaria for commercial pasture production only began in Africa at the start of the twenty-first century.

M: How many Brachiaria species currently exist in Africa?

S: There are seven species of African origin, namely, B. arrecta, B. brizantha, B. dictyoneura, B. decumbens, B. humidicola, B. mutica and B. ruziziensis. These are all used as fodder for livestock.

M: Why did BecA-ILRI Hub choose to work with Brachiaria grass as a means of improving livestock productivity in sub-Saharan Africa (SSA)?

S: Low livestock productivity has plagued sub-Saharan Africa for a long time, creating amongst other things, a severe food shortage for one of the fastest growing human populations in the world. Some of the major factors that contribute to these are feeds shortage and low-quality feeds. Brachiaria provides a solution because it produces a large amount of high-quality biomass that improves the availability of quality feed, its high nutrient value increases livestock productivity of meat and milk and reduces the overall carbon footprint of the livestock production system. Brachiaria additionally tolerates extreme climatic conditions and grows well in low fertile soils. It makes for a great substitute to other forage grasses such as Napier grass which is widely cultivated in sub-Saharan Africa.

M: Would you recommend Brachiaria grass over other forage crops e.g., Napier grass that has been a popular forage for a long time in East Africa?

S: Though Napier grass is very popular in East Africa, its productivity has been on the decline over the years due to smut and stunt disease attacks. The introduction of Brachiaria grass has provided an additional forage option to farmers and helped to bridge the livestock feed supply gaps especially during the dry seasons. Brachiaria grass is one of the top-ranked tropical forages for nutritive value, livestock productivity and climate change adaptation. It is suitable for both grazing and cut and carry systems.

M: What are the main activities that the Climate-smart Brachiaria program at BecA-ILRI Hub carries out?

S: The program provides technical support to National African Research Systems (NARS), non-governmental organizations, and the private sector on Brachiaria grass production and forage biosciences; carries research on Brachiaria grass diseases management; develops Brachiaria-legume cropping system for soil fertility management; identifies Brachiaria seed production niches in Africa; and discovers and uses plant beneficial microbes to enhance resilience and productivity of Brachiaria grass in sub-Sharan Africa.

M: Most livestock farmers in SSA are small-scale producers who do not have much land to grow their food let alone grow fodder, how do you encourage them to adopt Brachiaria grass?

S: The transformation of the livestock sector in Africa depends on intensification of livestock production systems. Improved forages like Brachiaria grass are a great resource that play a major role as a source of high-quality feed at a low cost. Planting Brachiaria grass in farmlands improves feed availability, enhances livestock productivity, and generates income for livestock farmers. It also protects soil from erosion and sustains soil fertility. Due to these benefits many livestock farmers especially those with smaller land sizes are dedicating more land under Brachiaria grass, with some farming it in place of staple food crops.

M: How many varieties/cultivars of Brachiaria are available to farmers in Kenya and how many other countries in SSA have benefitted from the Climate-smart Brachiaria program?

S:  Basilisk, MG-4, Piata and Xaraes are the Brachiaria varieties that are being promoted by ILRI and Kenya Agricultural and Livestock Research Organization (KALRO) in Kenya. These cultivars are currently undergoing the registration process in Kenya. The seeds of these cultivars are available in limited quantities in Kenya through KALRO. Hybrid seed cultivars like Mulato II, Cayman and Cobra are also being sold in Kenya.  So far, about 40,000 farming households in 18 countries in SSA are beneficiaries of the Climate-smart Brachiaria program.

M: How else can farmers use this “wonder grass?”

S: Brachiaria grass can be used as a bioenergy crop to produce biofuel.

It can also be used in crop protection, soil conservation and has great environmental qualities.

Farmers can use Brachiaria to generate income by producing and selling hay. Additionally, the production of rooted tillers as a means of planting materials has recently emerged as a new avenue for agro-business for youth and women in the SSA region.

M: How long does it take for Brachiaria grass to grow to its full height and nutrient potential after planting?

S: The height and time it takes for Brachiaria to attain it is influenced by various factors such as the variety, altitude, soil fertility and other agro-climatic conditions. At the ILRI Nairobi campus, the grass grows to a full height of 1.8 metres. Most varieties take about four to five months to attain their full height.  The nutritive value of forage declines as it matures, it is therefore important to identify the right harvesting time with the perfect balance of biomass and nutritive value.  For good quality hay, Brachiaria should be harvested prior to flowering.

M: What are some of the challenges that farmers might expect to face while growing Brachiaria grass?

S: The major challenges could be pests and diseases and a decline in soil fertility if manure and fertilizers are not applied on a regular basis.    

Goat production is among the foremost agricultural activities that sustain the livelihoods of millions smallholder farmers and pastoral and agro-pastoral communities in Tanzania. Majority of Tanzania goats (about 98%) are assumed to belong to the Small East African (SEA) breed, with very few belonging to other exotic dairy and meat goat breeds.

The Small East African goat breed is predominantly found throughout eastern Africa and parts of southern Africa. These goats have different tribal or local names and are mostly kept by pastoralists in the rural areas, agro-pastoralists and mixed (crops-livestock) farmers for meat. Their coat produces good quality leather. Some of the valuable characteristics of these goats are a tolerance to heartwater (an endemic tick-borne disease of ruminants), worms and other diseases commonly found in East Africa, such as mange. They are small (they range in weight between 20 and 45 kgs), agile and active goats whose colour ranges from pure white, pure brown to pure black with various intermixes of the three colors.

But different agroecological zones result in differentiations in the goats’ adaptive nature. SEA goats in Tanzania have not been fully characterized, and as a result, there is no breed- or strain-specific information on their genetic variability or uniqueness. Today, it is still unclear whether the indigenous goats of Tanzania are one breed (SEA) or if they fall under different strains or ecotypes. Additionally, the performance and adaptive attributes of the SEA goats kept in the country are still unknown.

Tanzanian farmers have made numerous efforts to crossbreed SEA goats in an attempt to improve their productivity, an activity that could prove more harmful than helpful if not checked. Crossbreeding by farmers without understanding the goat genetic resources could lead to loss of some of the unique features of these goats. On the other hand, understanding goat genetics has the potential to increase SEA goats’ milk and meat productivity and create sustainable development of goat farming in the country.

Athumani Nguluma, a senior research officer at the Tanzania Livestock Research Institute (TALIRI), and a former Biosciences eastern and central Africa – International Livestock Research Institute (BecA-ILRI) Hub Africa Biosciences Challenge Fund (ABCF) fellow, is studying the genetic diversity of SEA goats in Tanzania. His goal is to better understand this important goat breed so that he can contribute to a clearer understanding of its population genetic structure and unique genetic features. This knowledge will be vital in designing SEA breed improvement and conservation programs, which could solve the low meat and milk productivity problem of the local goats that plagues Tanzanian farmers thereby considerably improving household income and bringing other socio-cultural benefits.

At TALIRI, Nguluma is working with the organization responsible for coordinating research in Tanzania including small ruminant research, which is where Nguluma was exposed to previous research on SEA goats and his interest was piqued. While studying for his PhD, he worked on the characterization of SEA goats, but due to insufficient funding, his assessed only a few subpopulations of the breed and identified only a few microsatellite markers of the breed’s genome.

Receiving the ABCF fellowship broadened Nguluma’s research from what he had initially hoped to do. His study, which has been ongoing for a year, is focused on assessing the diversity of goats in the major agro-ecological zones of Tanzania. His research methods include on-farm collection of goat blood samples and a cross-sectional research design through farmer interviews to gather information about the goats breeds in the country and their production environment. So far, he has obtained phenotypic and maternal genetic variation data of goats from 11 out of 26 regions in the country.

Nguluma appreciates the role of the BecA-ILRI Hub in equipping him with the skills to do this work. ‘Before coming to BecA-ILRI Hub my knowledge and skills on molecular genetics and genomics was low. I have since been exposed to state-of-the-art molecular labs and the technical knowhow in molecular research. I have also gained modern bioinformatics skills and access to important software for my research.’

The next steps in his research include data analysis, report writing and publishing his findings. He will also conduct a comparative genomic study of the country’s goat populations to better understand the uniqueness of particular breeds. Later he will carry out whole sequencing of their genetic code so he can develop markers for improvement to boost their productivity. 

While at BecA-ILRI Hub, he was supervised by Roger Pelle. At TALIRI, he’s supervised by S. W. Chenyambuga and Zabron Nziku from TALIRI.

With an area of 885,800 km2 and a population of 58,458,191 people, Tanzania is one of the largest and most populous countries in Africa. Crop and livestock farming is the main source of livelihood for most Tanzanians. The country’s large livestock population includes 25 million cattle, 16.7 million goats, and eight million sheep.

The main source of feeds for livestock in Tanzania is natural pastures, which are found in the country’s vast rangelands. But these feed sources are often of poor quality and insufficient, especially in the dry seasons. Additionally, conversion of natural pasture into crop production and non-agricultural use areas, and the degradation of pasture due to overgrazing and poor management have reduced the feed available to the country’s livestock.

One step towards addressing the shortage of quality animal feeds in Tanzania is by establishing the available alternative feed resources. Walter Mangesho, a senior livestock research officer at the Tanzania Livestock Research Institute (TALIRI) and a former Africa Biosciences Challenge Fund (ABCF) fellow at the Biosciences eastern and central Africa-International Livestock Research Institute (BecA-ILRI) Hub, is assessing the Brachiaria grass ecotypes in Tanzania and their morphological and genetic characterizations.

In addition to establishing the types of Brachiaria grasses in the country; Mangesho’s research aims to improve selected Brachiaria grass cultivars, which have high biomass production potential, are nutritive to livestock and resilient to climate change. His goal is to avail the improved Brachiaria varieties to smallholder farmers in Tanzania who will use them as feed to improve the productivity of their animals. ‘I am determined to work towards solving the major livestock challenges in Tanzania, which include a shortage of quality feeds,’ he said

His research, which started in Dodoma, has so far identified and collected 142 Brachiaria ecotypes from 10 regions of Tanzania. These ecotypes are now maintained in a field at TALIRI in Tanga, Tanzania. All the ecotypes were characterized for morphological characteristics and genetic diversity. A subset of the ecotypes with superior phenotypes have been selected and are currently being multiplied for further evaluation.

‘While at the BecA-ILRI Hub, I worked with a team of highly-qualified researchers, mentors and trainers who helped me in molecular biology and genomics research that I had no prior experience with. They strengthened my morphological data collection skills,’ Mangesho remembers of his time as an ABCF fellow at BecA-ILRI Hub.

He was supervised by BecA-ILRI Hub’s Sita Ghimire, Cathrine Ziyomo and Nasser Yao. Jonas Kizima from TALIRI and Angelo Mwilawa from Ministry of Livestock and Fisheries, Tanzania also supervised his genomic and morphological data collection while at the hub.

‘I hope to start multi-location trials in December 2020, once the Brachiaria cultivars are ready,’ remarks Mangesho about his next plans for the near future.

Goats are among the most common farm animals in developing countries. Africa is home to about 35% of the world’s goat population (FAO 2016). They play an important socio-economic, nutritional and cultural role in rural households. An important indicator of goats’ adaptation to environmental conditions is their reproductive efficiency.

DR Congo has three major agro-ecological zones: the alluvial basin in the northeast and the central part; savannah in the central, western and the southeast; and the high-altitude volcanic mountains in the east of the country. More than 4,082,624 indigenous goats are spread throughout these agro-ecological zones.

In the Democratic Republic of Congo, goats are the second most domesticated species after chicken. Goats make up between 30% and 60% of the country’s total livestock numbers. The country hosts three major breeds: the small goat, dwarf goat and Kasai goat. Congolese goat farmers raise and breed goats for meat production and commercial transactions, contributing up to 72% of households’ income in rural areas in the country. The productivity of African’s indigenous goats is low, and little is documented on the genetic diversity, production system and distribution of goats in DR Congo.

Patrick Baenyi, an Africa Biosciences Challenge Fund (ABCF) fellow from the Evangelical University in Africa, DR Congo, undertook a survey on 202 goat farmers in the country to identify typology, production management and critical traits considered in goat selection by farmers in three agro-ecological zones — South Kivu, Tshopo and Kinshasa. In his pioneering research, he collected phenotypic data and used phenotypic and molecular markers, that are the basis for animal genetic diversity studies, to characterize goat genetic resources.

The survey revealed that goats in the three zones were clustered into breed clusters, grouped into small goat and dwarf goat, mostly characterized by a black coat colour and curved horn. The clusters were further distinguished by their reproductive traits (i.e. the number of kids per gestation period, such as twins or triplets) and the total number of kids per goat’s lifespan.

Baenyi’s study was an important first step towards goat breeding in the country and aids decision-making on goat genetics improvement in the country. Its findings suggest that molecular characterization by sequencing and genotyping should be considered by animal breeders to clarify the physical differences in goat breeds that were observed and to identify whether these differences are genetic or adapted from environmental influence. A good understanding of this genetic characterization is useful in designing effective strategies for managing, improving and conserving domesticated animal resources.

‘Working with the Biosciences eastern and central Africa-International Livestock Research Institute (BecA-ILRI) Hub reinforced my skills in conducting genetics research and showed me the value of collaborating with other researchers and sharing my findings with the public. I was also trained in bioinformatics and proposal writing and I have continued with the invaluable mentorship relationships that started during my time at the hub,’

says Baenyi.

He is currently working under the supervision of ILRI’s Roger Pelle and his and is studying for his PhD in animal genetics and breeding at the University of Nairobi.

Cameroon, like other African countries, relies on agriculture as a main economic activity with livestock employing at least 30% of the country’s rural population. The livestock sector in Cameroon is crucial to its economic growth, food and nutrition security, and job creation. Forages of African origin, such as Brachiaria have been instrumental in the transformation of the livestock sector in many parts of the world including tropical America, Australia and East Asia. But the potential of native forages to alleviate livestock feed shortage in Africa has been little explored.

In 2012, the Biosciences eastern and central Africa-International Livestock Research Institute (BecA-ILRI) Hub started the ‘Climate-smart Brachiaria Program’ in partnership with the National Agricultural Research Systems (NARS) and development partners in sub-Saharan Africa. This program aims to increase livestock productivity in the region by providing high-quality and climate-resilient Brachiaria grass.

Paul Ko Awono, an Africa Biosciences Challenge Fund (ABCF) fellow at BecA-ILRI Hub from the Institute of Agricultural Research for Development (IRAD) in Cameroon, is researching how to improve Brachiaria seed production technology in Africa. His study, which is supervised by Sita Ghimire and Kingsley Etchu from BecA-ILRI Hub and IRAD, involves collecting information about Brachiaria seed production systems in the North and Adamawa regions of Cameroon, evaluating agronomic performances of Brachiaria landraces and improved cultivars, and examining the quality of Brachiaria seeds produced by farmers in the country. In Cameroon, Brachiaria seed is often traded as a cash crop and is a source of income for many farmers.

So far, Ko Awono’s research has revealed that the size of the farmlands dedicated to Brachiaria production are smaller (0.25 to 0.5 ha) in the North region compared to those in the Adamawa region (1 to 15 ha). His research also shows that Brachiaria seed yield is low in both regions (≤ 300 kg/ha). Major constraints on Brachiaria production in both regions include weed infestation, wandering animals and lack of market for Brachiaria seeds. Additionally, he has found that Brachiaria landraces mature earlier and are better adapted to harsh environmental conditions than improved cultivars. His research has also uncovered that Brachiaria seeds samples produced by farmers in the two regions are of variable qualities (poor to excellent) and some seeds samples are superior for germination than the improved cultivars.

Paul’s research revealed that the size of the farmlands dedicated to Brachiaria production by a farmer were smaller (0.25 to 0.5 ha) in the North region as compared to Adamawa region (1 to 15 ha). His research also indicated that Brachiaria seed yield was low in both regions (≤ 300 kg/ha) and the major constraints of Brachiaria production in both regions were weed infestation, wandering animals, and lack of market for Brachiaria seeds. Additionally, Brachiaria landraces were earlier in maturity and were better adapted to harsh environmental conditions than improved cultivars. His research also uncovered that Brachiaria seeds samples produced by farmers in North and Adamawa region were of variable qualities (poor to excellent) and some seeds samples were superior for germination than improved seeds.  

Ko Awono recognizes the role of the ABCF fellowship, which he received in 2019, has played in his work as a forage researcher. ‘It gave me several opportunities: I learnt how to write research proposals, set up agronomic trials, and collect, analyse, and interpret data.’ He also learned several techniques related to seed quality determination in the laboratory and greenhouse settings.  ‘The training and mentorship I received at BecA-ILRI Hub has played a key role in my work. It helped me to improve my scientific skills, which has made me a better researcher. ‘I am using the skills and knowledge I gained to help Cameroonian farmers increase the quality and quantity of Brachiaria seeds, which will improve their livestock production, incomes and livelihoods,’ he concludes.

Speed Breeding is a new and exciting approach to breeding originally inspired by the US National Aeronautics and Space Administration (NASA) that promises to develop new crop varieties faster, offering hope for food security in the continent. Through Speed Breeding, African researchers are working to develop new crop varieties faster.

The technique involves growing plants under continuous light (20–22hours). This allows plants to photosynthesize for longer, resulting in faster growth. With this technique, four to six generations of wheat plants can be grown per year instead of two generations under normal growth conditions. The result is researchers develop new crop varieties quicker.

Researchers at the Biosciences eastern and central Africa–International Livestock Research Institute Hub, known as the BecA-ILRI Hub and the John Innes Centre, UK, are bringing the benefits of Speed Breeding to Africa. Scientists Peter Emmrich and Oluwaseyi Shorinola are applying Speed Breeding to grass pea and wheat breeding in Africa, demonstrating that the technique can be used for major and orphan crop breeding.

Shorinola is developing new wheat lines that have seen increased grain size and protein content and that are resistant to major wheat diseases in East Africa. His research has already resulted in faster growth of wheat plants under Speed Breeding conditions in Africa.

‘Speed breeding is such a simple way of growing plants faster. Unlike many advanced technologies that do not easily translate to Africa, Speed Breeding can easily be adopted by African breeders to accelerate their work. There is no “magic” or complicated science behind it; we are simply using LED lights to extend the length of day for plants, and this makes plants grow faster’, remarks Shorinola.

Emmrich is working on eradicating the toxin produced in grass pea, making it safe to eat in East Africa. Speed Breeding is helping the researchers to breed the low-toxin trait developed at the John Innes Centre, UK, into high-yielding varieties that are adapted to East Africa.

Grass pea is great at surviving extreme weather conditions such as drought and flooding, so the researchers hope non-toxic varieties will contribute to maintaining food and nutritional security as climate change progresses, especially in Ethiopia, where grass pea is already widely consumed.

According to Emmrich: ‘The amount of power needed for the lights and temperature control makes this too expensive for farmers to use. Breeders, however, often have to put their plants through many generation cycles, and in this context Speed Breeding can save both time and money. That means improved varieties can be made available quicker.’

Recognizing the potential of Speed Breeding for accelerating crop improvement in Africa, the BecA-ILRI Hub is planning to expand its Speed Breeding capacity and to integrate it with other modern technologies like gene editing and genomic selection and to make it accessible to African researchers.

Cathrine Ziyomo, BecA-ILRI Hub’s Program lead, says that most of the crops that make significant contributions to Africa’s food security have a lengthy generation time and complex biology. She adds that Speed Breeding presents researchers and plant breeders with unique opportunities to fast track genetic improvements for important traits. 

‘We hope that by establishing a Speed Breeding platform in Africa, the Hub can simultaneously increase access to modern and innovative methods of crop improvement while increasing the efficiency and cost-effectiveness of breeding for under-researched crops’, says Ziyomo.

Shorinola and Emmrich’s research is done in partnership with the John Innes Centre, with support from the Royal Society and Biotechnology and Biological Sciences Research Council (BBSRC), UK.

Africa sits at the frontline of a changing climate system and is very vulnerable to climate change. Agriculture in sub-Saharan Africa needs a boost to feed the 600 million people currently experiencing food insecurity, and the extra 1 billion people expected to live in the next 30 years on the continent. In this light, developing better yielding and more nutritious, climate-resilient crop varieties faster is a major priority for Africa’s researchers.

In a truly international collaboration, BecA-ILRI hub is partnering with a team of scientists from the John Innes Centre (JIC, UK), University of Bern (Unibe, Switzerland) and the Ethiopia Institute of Agricultural Research (EIAR, Ethiopia) to use modern genomics tools to address some of the constraints to tef production.

The team, whose other members include Dr Kebebew Assefa, Dr Solomon Chaleyew, Dr Brande Wulff, Dr Kumar Guarav, Dr Dejene Girma and Dr Zerihun Zadele (Universität Bern), will be sequencing the entire genome of a representative collection of the 200 tef lines from Ethiopia. This will be the first time genome sequencing will be done at this scale in this primarily neglected crops.

In addition to this valuable genomic data, the team will extensively measure different aspects of tef’s growth in the field, allowing them to identify genes controlling different characteristics in tef including grain size and plant height.

Knowing these genes will enable Ethiopian researchers to mix-and-match different essential genes through breeding to develop tef varieties with bigger grain and studier stem.

“We are delighted to work alongside our partners at BecA-ILRI Hub, EIAR and Bern on this important crop. We hope that the use of genomic approaches and training will provide new tools for breeders to develop improved tef cultivars for farmers.”

Prof Cristobal Uauy, Project lead

Tef is an ancient crop grown in Ethiopia for more than 2000 years. It constitutes a large part of the diet of the 112 million people in Ethiopia as it is used to make Ethiopia’s main staple dish – injera, a flat fermented bread eaten daily in virtually every household.

Tef’s ability to grow under harsh environmental conditions and marginal soils makes it a fail-safe crop of choice by many subsistence farmers in Ethiopia.

Tef is also attracting a lot of attention beyond the border of Ethiopia. Over the last decade, tef popularity as a global “superfood” is growing in the western world mainly due to its high nutrient profile with high Fe, Ca, fibre, resistant starch and lysine content. Tef flour is gluten-free.

Although a vital food security crop and an increasingly popular crop, tef is particularly challenging to produce compared to many cereal crops. One big problem with tef production is the very tiny size of its seed small seed.

Tef seeds are (< 1 mm wide and 75 tef seeds weigh as much a single rice grain. The tiny seed size is, however, not the only problem tef farmers are grappling with. Tef plants also have very tiny, slender and weak stems which falls over (lodge) when the plants are ready for harvest causing massive seed losses.

The name tef is actually derived from the Amharic word for lost (“teffa”) bearing reference to the fact that the tiny seeds are lost during harvest.

The project is funded through a FLAIR collaboration grant award from the Royal Society UK to Prof Cristobal Uauy (JIC) and Dr Oluwaseyi Shorinola (BecA-ILRI Hub).

“This is a genuinely equitable north-south collaboration to improve a very important but largely neglected crop in Africa. Our collaboration will produce lasting and valuable genomics resource that Ethiopian researchers can use and re-use for a long time to improve any characteristic of interest in tef.”

Dr Oluwaseyi Shorinola, a co-lead on the project

CONNECTED conducts Virus and vector diagnostics workshop for selected researchers at BecA-ILRI Hub

The Community
Network for African Vector-Borne Plant Viruses (CONNECTED) formed a partnership
with BecA-ILRI Hub in 2018 that led to a five-day full-funded training course
for early career plant molecular biologists from across Africa. The course
titled: An introduction
to virus and vector diagnostics took place on 11-15 March and was hosted by
BecA-ILRI Hub in Nairobi, Kenya.

The course
trained 17 participants from 10 countries, carefully selected after a call for
early career researchers interested in virus and vector diagnostics was put out
by CONNECTED and shared on various digital platforms. The trainers were
Professor Neil Boonham from Newcastle University and Professor Gonçalo Silva
from The Natural Resources
Institute, University of Greenwich, UK. Their key objective was to empower the
participants with the ability to diagnose cassava and yam diseases by
empowering them with practical skills that can easily be used in their
fieldwork.

The
training began with opening remarks from Jacob Mignouna, BecA-ILRI Hub’s
Director: “This training highlights the
functions and goals of our diagnostic
platform, that is set up to provide knowledge and
technologies to help researchers advance their career goals.” This was followed by an
introduction of BecA’s technology platforms in a presentation made by BecA’s Technology
Manager, Josephine Birungi and a round table introduction of the participants
conducted by Julius Osaso, BecA’s diagnostic platform manager.

Professor
Boonham then took the trainees through an introduction to DNA Bar-coding and
instructed them on how to achieve high quality results to start off the
training, which was followed by a lab induction by ILRI’s health and safety
department (EOHS). After lunch, the trainees began their lab training that
involved DNA extraction and PCR amplification.

Over the
next couple of days, the trainees were taken through gel electrophoresis,
product purification, DNA prep for sequencing, LAMP and RPA amplification,
Database searching and DNA clustering. The training sessions included a morning
outline of activities and questions from the trainees, and a recap of the day’s
activities and general questions at the end of the training days.

“I am glad that this
workshop has brought in participants from our partner institutions such as
NACRRI with whom we already have on-going projects, but also the renewed
opportunities for other partnerships.” Julius Osaso, Diagnostics Manager,
BecA-ILRI Hub.

 “I have learnt techniques such as bar-coding
that will help me distinguish the species of insects like the whitefly, which
is very important for the work that I do. I have to thank CONNECTED network and
BecA for this opportunity.” Helen Apio, NACRRI, Uganda

“I am a
trained entomologist with no prior experience on some of these techniques such
as PCR and DNA extraction, which are very important to me and my project work,
which is on aphids. I am grateful to CONNECTED because I can now integrate
entomology and microbiology to reach greater heights in my career.” Honest
Machekano, Botswana International University of Science and Technology (BIUST),
Botswana.

“The training has strengthened my skills,
which is great for my career, I now know how to diagnose viruses and identify
insect pests for plans, I will now be to identify what lies in resistant virus
lines.” Fred Masika,
ABCF alumni, Uganda.

The course funding included travel,
accommodation, course fees and subsistence. The participants came from 10
countries: Benin, Burundi,
Democratic Republic of Congo, Ghana, Kenya, Nigeria, South Africa, Tanzania,
Uganda and Zambia.

The
CONNECTED network is a project that is working to build a sustainable network
of international scientists and researchers to tackle vector-borne plant
diseases that devastate lives in Sub-Saharan Africa.

Early career
researchers who
might be interested in similar opportunities are invited to join the CONNECTED
network, which is free of charge by following this link.

The African Academy of Sciences and Royal Society announce the recipients
of the FLAIR scheme that is awarding £25M, (£300,000 each) to 30 early
career African
research scientists.

We are proud to
announce that Dr Oluwaseyi Shorinola is one of the scientists that
have
been awarded £300,000 (Approx. US$400,000)
over 2 years.
Oluwaseyi’s FLAIR research
fellowship will be carried out at the BecA-ILRI Hub.

FLAIR (Future Leaders – African Independent Research) is a programme of
The African Academy of Science and Royal Society, with support from
the UK’s Global
Challenges Research Fund (GCRF). The fellowship is designed to help
talented early-career researchers, whose science is focused on the needs of the
continent, establish independent careers in African institutions and
ultimately, their own research groups. Up to 30 FLAIR fellowships will be
awarded in 2019 to researchers from Cameroon, Nigeria, Rwanda, South Africa and
Zimbabwe.

Dr Shorinola has a pre-existing relationship with the BecA-ILRI Hub, where
he was on secondment as a post-doctoral scientist from the John Innes Centre
(JIC), UK. His post-doctoral
work focused on understanding the genetic control of important
economic traits in wheat including grain quality and root development. He is
using a combination of
mutational genomics approaches, high-throughput phenotyping, next-generation
sequencing and classical genetics to identify genes involved in grain
quality traits and root development and will deploy these to develop improved
wheat varieties.

He is additionally involved in the ACACIA (acaciaafrica.org) partnership – a strategic partnership
between JIC and the BecA-ILRIHub. Under this partnership,
Oluwaseyi is coordinating an extensive 2-year bioinformatics training programme
to building a support network for agricultural research in Africa.

His research as a FLAIR fellow at BecA-ILRI Hub will focus on using genetics to improve the yield and quality of
wheat production in East Africa.  Olywayesi
will particularly focus on using “speed” breeding to introduce five beneficial
genes for grain size, protein content and disease resistance into East Africa
wheat.

Kodjo Glato was one of 157 passengers and crew who tragically perished in the crash of flight ET302 on 10 March 2019

The International Livestock Research Institute (ILRI) and Biosciences eastern and central Africa (BecA)-ILRI Hub express their profound sympathy to all those who were bereaved when their family members, friends or colleagues tragically lost their lives in the Ethiopian Airlines crash on Sunday, 10 March 2019.

A Togolese national, Dr Glato was an assistant professor and researcher at the University of Lomé, Togo, a partner institution of ILRI’s. He was on his way to Nairobi to attend a BecA-ILRI Hub training course that is part of the Community Network for African Vector-Borne Plant Viruses (CONNECTED).

Dr Glato was a biotechnologist
and plant physiologist working on agricultural genetic diversity and
smallholder farming practices associated with sweetpotato cultivation. He
received his PhD in 2015 from the University of Lomé.

Staff and partners at the
BecA-ILRI Hub knew him as a hardworking, affable and dedicated young
professional. He was part of a new generation of scientists contributing to
Togo’s agricultural development.

Kodjo
Glato inspired many with his drive and tenacity. He was known to take on
challenges with monumental zeal. His passion for the smallholder farmer will be
badly missed. May he rest in peace.
—Jacob Mignouna, director of the BecA-ILRI Hub

It
is always sad to lose a colleague suddenly. But to lose a colleague at the very
start of his career, with so much left to contribute, is a tragedy.
—Jimmy Smith, director general of ILRI

‘On behalf of ILRI’, Jimmy Smith
said, ‘we extend our deepest condolences to Kodjo Glato’s family, friends and
colleagues as well as to all those who lost colleagues, friends and loved ones
on flight ET302.’