Reaching for the stars . . .

I’m not a fan of talent shows like Britain’s Got Talent (BGT, or its US equivalent) or The X Factor, and never tune in to watch. But a few clips have caught my attention on YouTube (and once you’ve clicked on one such video, YouTube offers up others incessantly), and I will admit that some quite exceptional talents have been discovered in this way. Whether the really young ones go on to fulfilling careers in entertainment is another thing.

And, of course, many apply to appear on the show(s) just for the fun of it.

One particular BGT clip caught my attention the other day because, from the brief description, it appeared to be a 2019 audition by primary school children who got the Golden Buzzer. I was intrigued so decided to watch.

The children were from Flakefleet Primary School in Fleetwood, Lancashire, accompanied by their headmaster, Mr Dave McPartlin (no relation to one of the show’s hosts, Ant McPartlin).

Mr McPartlin told the judges that several of his pupils had an ambition to appear on the show. The children just liked to sing, and their abilities ranged from ‘good’ to the ‘enthusiastic’. Before long it seemed as though the whole school was on stage, and the headmaster was just as much part of the performance as his pupils.

It’s clear that his pupils adore Mr McPartlin, and he comes across as just the sort of head teacher any parent would wish for their children and any child to relate to. But enough from me, for now. Just take a few minutes to watch Flakefleet Primary’s performance, and listen carefully to how the headmaster encourages the children. Impressive.

They actually moved into the 2019 final, but didn’t win. Never mind, they’d already achieved more than they ever expected when they auditioned. After all, the school’s motto is Dare To Dream. What’s also impressive is the effort it must have taken from everyone: teachers, parents, children to prepare for each show. The rehearsals, the costumes, the encouragement for the shy ones.

The school was recently rated Good with some Outstanding features in its Ofsted report. And as the school highlighted on its homepage, ‘We are particularly thrilled that they recognized the outstanding job that we do at looking after, caring for and supporting our lovely children‘.

And this is what we can hope for – and indeed expect – from all schools and teachers. Sadly it’s not always the case. Some school fail. Whether this is lack of leadership, poor teacher recruitment, lack of local and government investment (especially in socially deprived areas, inner city areas), or lack of communication between schools and families I’m not expert to comment on.


When we moved to Bromsgrove in north Worcestershire in July 1981 after a period abroad, we were fortunate to find a house within the catchment areas of two excellent schools. Worcestershire has a three level First, Middle  and High School system.

Back in the day, Finstall First School (FFS) was less than a mile from home. It’s since moved to a new site just around the corner from our former home. Both our daughters Hannah and Philippa attended FFS whose head teacher was Mr Tecwyn Richards.

Mr Richards was a charismatic individual. He seemed to know the names of each and every child. Amazing. He came across as a gentle man, setting excellent standards among his staff and the pupils in his care.

Aston Fields Middle School (AFMS) was even closer to home, and Hannah moved there when she was nine. The headmaster was Mr Barrie Dinsdale who, like his colleague at FFS, interacted so well with all the children.

We count ourselves very fortunate that Hannah and Philippa were able to experience their first years in education under such rewarding circumstances. I should add that Hannah moved on to Bromsgrove South High School in the autumn of 1991, and Philippa on to AFMS at the same time. But they remained there for just one term until Christmas when they left the UK and joined me in the Philippines, continuing their education at the International School Manila. A totally different set-up and more of a grades factory!


I think I started school in September 1953. I don’t think it would have been earlier, since I turned five in November that year.

What do I remember of my schooling and particularly the headteachers? For the most part they didn’t even aspire to Mr McPartlin’s standards.

Although we lived in Congleton in Cheshire, I attended a small Church of England village school at Mossley, a mile or so southeast of the town.

The headmaster was Mr Morris, seen here with some of his staff.

Two of my teachers, Mrs Bickerton and Mrs Johnson are seated on the extreme right and left of Mr Morris. I don’t know who the other three ladies were.

I have happy memories of my time at Mossley. I didn’t complete my primary schooling there since my family moved to Leek in Staffordshire in April 1956. And from then until I completed high school in June 1967, my education was ‘ruled’ by the Catholic Church.

In Leek, my elder brother Edgar and I were enrolled at St Mary’s Catholic Primary School (now St Mary’s Catholic Academy), on the corner of the A53 and Cruso Street, a short walk from our home on St Edward Street. It was run by nuns of the Sisters of Loreto.

For my first term, the headmistress was Mother Michael, and her deputy was Mother Elizabeth (who became head when Mother Michael left later that year). As a small boy of seven, I found it quite frightening at first being faced with these ladies in long black robes and head veils (penguins almost).

My lasting impression was a strict regime, and the occasional rap over the knuckles with the edge of a steel ruler. Very painful! There was only one male teacher, Mr Smith. There’s still only one male teacher today.

I think my experience at St Mary’s was the start of my conversion to atheism, which I’ve written about earlier.

In September 1960, having passed my 11+ exam and won a scholarship to grammar school (that’s selective education for you), I attended St Joseph’s College, a Catholic grammar school for boys, in Trent Vale, Stoke on Trent, a 14 mile journey each way, every day. Motto: Fideliter et Fortiter (Faithful and Strong)!

The school was founded in 1932 and run by the Christian Brothers. Take ‘Christian’ with a pinch of salt. However there were more lay teachers than Brothers.

My first headmaster, for one year only was Brother Henry Wilkinson, who insisted on using the tannoy system that was installed in each classroom. Radio Wilko! You never knew just when a lesson might be interrupted by one of his messages.

He was followed by Brother JB O’Keefe (what a smoker!) who remained at the helm during the rest of my time at St Joseph’s. We didn’t see much of him on a daily basis, but at least he removed the tannoy. He seemed a kindly sort of man, but he oversaw a harsh regime. One that used frequently administered corporal punishment, as I have also described in that earlier post.

On reflection, not a happy education. Not one that I would write home about.

So when I see the joy of those children from Flakefleet Primary, I wonder what I missed out on. We have come a long way over the past 50-60 years, although some schools have a ways to travel yet. I’m sure that St Mary’s and St Joseph’s are not the same schools that I left half a century or more ago. For one thing, the two religious orders are no longer involved in the management of both.

School and religion should be separated, just like government and religion.


 

Strikes and spares . . .

No, this isn’t a commentary on the current state of industrial relations in the United Kingdom, nor a review of Prince Harry’s book that was released a few days ago.

I’m referring to ten pin bowling, of course. I have this trophy proudly displayed in my office. It always brings back so many pleasant memories of my time in Peru.

Not long after I joined the International Potato Center (CIP) in Lima, Peru in January 1973, the Director General, Richard Sawyer (right) invited me to join the bowling team that the CIP was fielding in the league run by the US mission to Peru.

Unlike the USA, ten pin bowling only took off in the UK from about 1960. Before 1973 I had been bowling on just a handful of occasions. It wasn’t a sport I was particularly interested in. But it was fun.

Nothing ventured, nothing gained, I readily joined the CIP team whose membership varied from week to week depending on who was in town or traveling. Since much of my own research took me to Huancayo in the central Andes (at 3100 m or just over 10,000 feet above sea level), where CIP was building its highland field station, my active membership of the bowling team was sporadic to say the least.

I’d found an apartment in the Lima suburb of Miraflores, just a stone’s throw from the bowling alley. Very convenient. So on bowling nights, I’d wander down to the alley, and maybe play one or more games, depending on who else had turned up.

It was a mixed league. Richard was the captain (obviously) of the CIP team, and other members included his wife Norma, CIP comptroller Oscar Gil, visiting entomologist from Cornell University, Maurie Semel, British plant pathologist John Vessey (and his wife Marian if my memory serves me well), myself, and perhaps one of two others whose names I do not recall.

It was all very relaxed and enjoyable, and was the first time that I had mixed socially with a group of Americans. They made me feel very welcome. But they were competitive!

At the end of the season we held a dinner and trophies were handed out. Now, my bowling was not particularly accurate or consistent, but somehow I ended up with the trophy for 2nd high game. Remarkable! And it’s the only trophy I have ever won.


When I joined the International Rice Research Institute (IRRI) in the Philippines in 1991, as head of the Genetic Resources Center (GRC), my staff invited me to join them on Saturday afternoons at the local bowling alley where they had grouped themselves into several teams. Yes, it was ten pin bowling but not as I knew it. Wooden bowls and wooden pins that you had to set up manually. But it was great fun, helped along with several San Miguel beers. Here I am in action – on both fronts.

It was also a great opportunity for me to get to know many of my staff away from the office.

Now this reminds of another story. The first weekend after I arrived in the Philippines, and at a loose end, I decided to drive down to the IRRI research center, and check a few things in my office. To my surprise I found almost all the staff working, and essentially waiting for me to show up. Why were they were working at the weekend, I asked. Apparently my predecessor, Dr TT Chang, expected them in every weekend, and they assumed I would want the same. No way! I told them to go home. Weekends were for family, for relaxation, charging batteries, and if, on any occasion, I needed them to come into the office at the weekend, I’d could ask and hope they would reciprocate. (Which they always did, I hasten to add).

Well, a few weeks later (after we’d started the bowling competition) I received a phone call from one of my colleagues, Dr Kwanchai Gomez (a rather difficult character to say the least), former head of IRRI’s statistics unit, and currently assistant to the Director General. She told me that some visitors from Manila would be at IRRI the following Saturday afternoon, and she expected the genebank to be open to show them around. I politely told her the genebank would be closed, and no staff would be available. She was dumbfounded. This was unheard of at IRRI. No-one took Saturdays off. But I wasn’t going to tell her we would be at the bowling alley enjoying ourselves.

The weekend working spell in GRC had been broken, once and for all.


I’ve never been a sporty type – even though I like winning. I’ve never relished competitive team games like football, rugby, and the like. Sports at school were a nightmare. At university I played squash for a couple of years, and a little badminton. But just for the exercise. I even took up badminton once again at IRRI from about 2005 until my retirement in 2010. And tennis in the early days, but didn’t keep that up.

On the badminton court with (L-R) Corinta, Vhel, and Yeyet from the DPPC office at IRRI.

I don’t know why I didn’t take more advantage of the swimming pool at IRRI Staff Housing pool (below), like Steph did almost every weekday throughout the 19 years we lived there. I guess I must have used the pool regularly for only the last five or six years.

I continued to swim regularly after we returned to the UK until the Covid pandemic struck in 2020 and the local pool in Bromsgrove was closed. Then we moved to the northeast, and there’s no pool conveniently local.

But the sport (if you can call it a sport) I did take to with relish was scuba diving. And the Philippines was just the place to do so. Starting in 1993 until retirement, I made 356 dives, all at Anilao, some 95 km south from IRRI.

Diving at Anilao.

Now that we are living just east of Newcastle upon Tyne, we are only 5 miles at most, and not more than about 10 minutes from the North Sea coast. At various locations along the coast there are reportedly some impressive diving sites. But having been spoiled by diving in warm tropical seas, the cold North Sea holds no allure for me. In any case I would also have to re-certify as a dry suit diver.

So now my regular exercise is a daily walk, weather permitting, and at a pace that’s appropriate for my age and level of fitness. I’m not out to break any records. It’s never a race.


 

8 billion . . . and counting

This is the latest estimate of the world’s population announced by the United Nations on 15 November 2022. Can you imagine? I was born 74 years ago when the population was just over a quarter of what it is today.

So many more mouths to feed, so many challenges to overcome. And population growth fastest in many of the world’s poorest countries.

The UN’s latest prediction is that another billion will be added by 2037, and that . . . half of the world’s population growth will be concentrated in just nine countries: India, Nigeria, the Democratic Republic of the Congo, Pakistan, Ethiopia, the United Republic of Tanzania, the United States of America, Uganda and Indonesia (ordered by their expected contribution to total growth).


In 2021, the Food and Agriculture Organization of the UN or FAO reported that 193 million people in 53 countries or territories were facing acute food insecurity. And while conflict and the effects of the Covid pandemic are contributors to this state of affairs, there is no doubt that weather extremes are also a major contributing factor, affecting many more people worldwide. More frequent storms. Too much water—or too little. Rising temperatures reducing the agricultural productivity in many regions.

Sustainable food and agricultural production were appropriately important themes at the latest climate change conference—COP27—in Egypt. The Consultative Group on International Agricultural Research or CGIAR, the Food and Agriculture Organization of the UN or FAO, and the Rockefeller Foundation together were prominent at COP27 with the aim of putting agrifood systems transformation at the heart of the conference.

So, whether you are a believer in climate change or a denier (I’ve never been a climate change denier—quite the opposite, in fact), surely you have to accept that something strange is happening to our climate.

More than 30 years ago, two University of Birmingham colleagues—Brian Ford-Lloyd and Martin Parry—and I organized a workshop to discuss the impact of climate change on agriculture and the conservation of plant genetic resources (and how they could, and should, be used to mitigate the effects of a warming climate). The proceedings were published in 1990. Twenty-five years later, in 2014, we followed up with a second volume reflecting how the science of climate change itself had progressed, and how better we were equipped to use genetic resources to enhance crop productivity.


So while agriculture has been—and continues to be—one of the contributors to climate change (livestock, methane from rice paddies, use of fertilizers and the like) it can and has to be part of the solution.

Since more than half of the world’s population are now urban dwellers, they do not produce their own food. Or at least not enough (even if they grow their own vegetables and such on small holdings or allotments) to support many others.

Subsistence farming is not a solution either, even though these farmers can increase productivity by adopting new agricultural practices and higher-yielding crop varieties, if appropriate and affordable. And those campaigners who advocate the abolition of livestock farming (and I have seen one young person state that all farming should be stopped!) have little notion of how that would affect the lives of farmers globally, or where the rest of us would source our food.

There has been much talk recently about diversification of farming systems and adoption of so-called ‘orphan crops’ as part of the solution. Of course these approaches can make a difference, but should not diminish the role and importance of staple crops like wheat, maize, rice, potatoes, sorghum, and many others.

So what are the options? Investment in plant breeding, among others, has to be central to achieving food security. We will need a pipeline of crop varieties that are better adapted to changing environmental conditions, that are one step ahead of novel pest and disease variants. Crop productivity will have to increase significantly over the next few decades.


My first encounter with plant breeding—or plant breeders for that matter—was during a visit, in July 1969, to the Plant Breeding Institute (PBI) in Cambridge during a field course at the end of my second year undergraduate degree course at the University of Southampton. We heard all about wheat breeding and cytogenetics from Dr Ralph Riley FRS (right) no less (later knighted and Director of the PBI from 1972 to 1978). Our paths crossed again several times during the 1990s when he was associated with the CGIAR.

During my third and final year at Southampton, 1969-1970, I enjoyed a plant breeding module taught by genetics lecturer Dr Joe Smartt whose original research background was in peanut cytogenetics. He had spent some years in Africa as a peanut breeder in Zambia (then known as Northern Rhodesia).

It was in that course that I was introduced to one of the classic texts on the topic, Principles of Plant Breeding by University of California-Davis geneticist, RW Allard (first published in 1960). Sadly I no longer have my copy that I purchased in 1969. It was devoured by termites before I left the Philippines in 2010.

I’ve never been actively involved in plant breeding per se. However, the focus of my research was the conservation of genetic resources (of potatoes and rice, and some other species) and pre-breeding studies to facilitate the use of wild species in plant breeding.


It’s been my privilege to know and work with some outstanding plant breeders. Not only did they need a knowledge of genetics, reproductive behavior, physiology and agronomy of a plant species, but this was coupled with creativity, intuition and the famous ‘breeder’s eye’ to develop new varieties.

Perhaps the most famous plant breeder I met in the early 1990s was 1970 Nobel Peace Laureate (and ‘Father of the Green Revolution’) Norman Borlaug, who spent a lifetime breeding wheat varieties, first with the Rockefeller Foundation and then with the International Center for the Improvement of Maize and Wheat (CIMMYT) in Mexico. I wrote about that encounter here.

Explaining how rice seeds are stored in the International Rice Genebank at IRRI to Nobel Peace Laureate Norman Borlaug

In the potato world I met Stan Peloquin from the University of Wisconsin, George Mackay in Scotland, and John Hermsen from Wageningen University. I worked alongside Peruvian potato breeder and taxonomist Carlos Ochoa (below) for several years.

When I joined IRRI in the Philippines in 1991 as head of the Genetic Resources Center, one of my close colleagues was 1996 World Food Prize Laureate Gurdev Khush (below left) who led the institute’s breeding program. He and his team bred more than 300 varieties of rice, some of which—like IR36 and IR72—have been grown over millions of hectares and saved countless millions from starvation.

And another rice breeder (and 2004 World Food Prize Laureate) famous for NERICA rice was Monty Jones (above right) at the Africa Rice Center in West Africa. Monty was a graduate at Birmingham and I was the internal examiner for his PhD thesis in 1983.


Plant breeding has come a long way since I first became interested 50 years ago. Breeders now have access to a whole new toolbox to accelerate the development of new varieties, some of which were not available just a few years ago.

A decade ago I asked my friend and former colleague at IRRI, Ken McNally to contribute a review of genomics and other ‘omics’ technologies to discover and analyse useful traits in germplasm collections to the 2014 genetic resources book that I referred to earlier [1]. I’m sure there have been many useful developments in the intervening years.

One of these is gene editing, and Nicholas Karavolias (a graduate student at Berkeley University) has written an interesting review (from which the diagram above was sourced) of how the CRISPR gene editing tool is being used to improve crops and animals.

Among the climate change challenges that I mentioned earlier is the likelihood of increased flooding in many parts of the world. Just last year there were devastating floods along the Indus River in Pakistan where rice is an important crop, as it is in many Asian countries. Although grown in standing water in paddy fields, rice varieties will die if totally submerged for more than a few days when floods hit.

Rice paddies near Vientiane, Laos.

There are rice varieties that can grow rapidly as flood waters rise. Known as deepwater rice varieties, they can grow several centimeters a day. But they are never submerged as such for long.

The harvest of deepwater rice varieties in Thailand.

Over several decades, submergence tolerant rice varieties were developed in a collaborative project between US-based scientists and those at IRRI using marker-assisted selection (not genetic engineering) to identify a gene, named Sub1 (derived from an Indian rice variety) and incorporate it into breeding lines. My former IRRI colleagues, plant physiologist Abdelbagi Ismail and breeder David Mackill have written about response to flooding. In the video below you can see the impact of the Sub1 gene [2]. And the impact of that gene is readily seen in the video below which shows two forms of the rice variety IR64 with and without the Sub1 gene.

To date, the impact of genetic engineering in crop improvement has not been as significant as the technology promised, primarily because of opposition (environmental, social, and political) to the deployment of genetically-modified varieties. I wrote about that issue some years back, and focused on the situation of beta-carotene rich rice known as ‘Golden Rice’. After many years of development, it’s gratifying to see that Golden Rice (as the variety Malusog) has now been grown commercially in the Philippines for the first time, and can now deliver real health and nutritional benefits to Vitamin A impoverished communities in the Philippines and hopefully elsewhere before too long.

In recent weeks there have been interesting news releases about the development of perennial rice and its potential to mitigate some climate change effects, and reduce labor usage. Researchers at the John Innes Centre in the UK have identified a gene that they hope will make wheat varieties more heat-resistant. The need for trait identification has never been greater or the importance of the hundreds of thousands of crop varieties and wild species that are safely conserved in genebanks around the world. Fortunately, as mentioned earlier, there are now better and more efficient tools available to screen germplasm for disease and pest resistance, or for genes like the wheat gene just discussed.

In terms of adaptation to a changing climate through plant breeding, I guess much of the focus has been on developing varieties that are better adapted to changing environment, be that the physical or biotic environment.

But here’s another challenge that was first raised some years back by one of my former colleagues at IRRI, Melissa Fitzgerald (right) who was head of the Grain Quality, Nutrition, and Postharvest Center, and is now Professor and Interim Head of the School of Agriculture and Food Sciences at the University of Queensland, Australia.

And it’s to do with the potential global savings of carbon. Melissa and her colleagues were looking at the cooking time of different rice varieties. This is what she (and her co-authors wrote in an interesting 2009 paper):

The cooking time of rice is determined by the temperature at which the crystalline structures of the starch begin to melt. This is called gelatinization temperature (GT). Lowering the GT of the rice grain could decrease average cooking times by up to 4 min. Although this might initially seem entirely insignificant, by computing the number of times rice is cooked in any one day by millions of households around the world, a decrease of just 4 min for each cooking event could save >10,000 years of cooking time each day. This represents massive potential for global savings of carbon and is of particular relevance to poor, rural households that depend on scarce local supplies of fuel.

Now there’s a huge breeding challenge.

Anyway, in this post I’ve really only scratched the surface of the topic, but hopefully for those readers not familiar with plant breeding, what it entails, and what it can promise, I hope that I’ve explored a few interesting aspects.


[1] McNally, KL. 2014. Exploring ‘omics’ of genetic resources to mitigate the effects of climate change. In: M Jackson, B Ford-Lloyd & M Parry (eds), Plant Genetic Resources and Climate Change. CABI, Wallingford, UK. pp. 166-189

[2] Ismail, AM & Mackill, DJ. 2014. Response to flooding: submergence tolerance in rice. In: M Jackson, B Ford-Lloyd & M Parry (eds), Plant Genetic Resources and Climate Change. CABI, Wallingford, UK. pp. 251-269.

Launching a career in agricultural research

Over a career spanning almost four decades, I spent more than 27 years in international agricultural research in South and Central America, and Asia. And a decade teaching at the University of Birmingham.

It all started on this day, 50 years ago, when I joined the International Potato Center (CIP) in Lima, Peru as an Associate Taxonomist.

But first, let me take you back a couple of years, to September 1970.


I’d enrolled at the University of Birmingham for the MSc degree in Conservation and Utilization of Plant Genetic Resources, taught in the Department of Botany. It was the following February that I first heard about the possibility of joining CIP.

The head of department, potato expert Professor Jack Hawkes had just returned from a six week expedition to Bolivia (to collect wild species of potato) that was supported, in part, by the USAID-North Carolina State University-sponsored potato program in Peru.

The American joint leader of that program, Dr Richard Sawyer (left), mentioned to Jack that he wanted to send a young Peruvian scientist, Zosimo Huamán, to Birmingham for the MSc course in September 1971, and could he suggest anyone to fill a one-year vacancy.

On the night of his return to Birmingham, Jack phoned me about this exciting opportunity. And would I be interested. Interested? I’d long had an ambition to travel to South America, and Peru in particular.

However, my appointment at CIP was delayed until January 1973. Why? Let me explain.


In 1971, Sawyer was in the final stages of setting up the International Potato Center. However, a guaranteed funding stream for this proposed research center had not been fully identified.

At that time, there were four international agricultural research centers:

  • the International Rice Research Institute (IRRI) in Los Baños, the Philippines (founded in 1960);
  • the International Center for the Improvement of Maize and Wheat (CIMMYT) near Mexico City (1966);
  • the International Institute for Tropical Agriculture (IITA) in Ibadan, Nigeria (1967); and
  • the International Center for Tropical Agriculture (CIAT) in Cali, Colombia (also 1967).

All received bilateral funding from several donors, like the non-profit Rockefeller and Ford Foundations for example, or government agencies like USAID in the USA or the UK’s Overseas Development Administration.

In May 1971 there was a significant development in terms of long-term funding for agricultural research with the setting up of the Consultative Group on International Agricultural Research or CGIAR (an umbrella organization of donors, run from the World Bank in Washington, DC) to coordinate and support the four centers I already mentioned, and potentially others (like CIP) that were being established.

Since its inception, CGIAR-supported research was dedicated to reducing rural poverty, increasing food security, improving human health and nutrition, and ensuring more sustainable management of natural resources.

For more than 50 years, CGIAR and partners have delivered critical science and innovation to feed the world and end inequality. Its original mission—to solve hunger—is now expanding to address wider 21st century challenges, with the aim of transforming the world’s food, land, and water systems in a climate crisis. More on that below.


Back in 1971 the question was which funding agencies would become CGIAR members, and whether CIP would join the CGIAR (which it did in 1973).

Throughout 1971, Sawyer negotiated with the UK’s ODA to support CIP. But with the pending establishment of the CGIAR, ODA officials were uncertain whether to join that multilateral funding initiative or continue with the current bilateral funding model.

Decisions were, in the main, delayed. But one important decision did affect me directly. The ODA gave me a personal grant in September 1971 to remain in Birmingham until funding to CIP could be resolved. I therefore registered for a PhD on potatoes under Jack Hawkes’ supervision, and spent the next 15 months working on ideas I hoped to pursue further once I could get my hands on potatoes in the Andes, so to speak.

With Jack Hawkes in the potato field genebank at Huancayo, central Peru (3100 m above sea level) in early 1974.

In the event, the ODA provided £130,000 directly to CIP between 1973 and 1975 (= £1.858 million today), which funded, among other things, development of the center’s potato genebank, germplasm collecting missions around Peru, and associated research, as well as my position at the center.


Arriving in Peru was an ambition fulfilled, and working at a young center like CIP was a dream come true, even though, at just 24, I was somewhat wet behind the ears.

However, there were some great colleagues who taught me the ropes, and were important mentors then and throughout my career. I learnt a lot about working in a team, and about people management, very useful in later years as I moved up the management ladder.

For the first three years, my work was supervised and generously supported by an American geneticist, Dr Roger Rowe (right, with his wife Norma) who joined CIP on 1 May 1973 as head of the Breeding and Genetics Department. I owe a great deal to Roger who has remained a good friend all these years.

Always leading from the front, and never shy of making the tough decisions, Roger went on to fill senior management positions at several CGIAR centers. As a former colleague once commented to me, “Roger was the best Director General the CGIAR never had.” I couldn’t agree more.

When I joined CIP’s Regional Research group in 1976 and moved to Costa Rica, my new boss was Ken Brown (left). Ken had been working as a cotton physiologist in Pakistan for the Cotton Research Corporation, although he had previously worked in several African countries.

Ken never micromanaged his staff, was always there to help set priorities and give guidance. In those aspects of people management, I learned a lot from Ken, and he certainly earned my gratitude.

Aside from my work on potato genetic resources (and completing my PhD in 1975), I enjoyed the work on bacterial wilt and setting up a regional program, PRECODEPA as part of my Regional Research activities.

Jim Bryan (right, with Costarrican assistant Jorge Aguilar) was my closest friend at CIP. A native of Idaho, Jim was CIP’s seed production specialist. Down to earth and pragmatic, Jim taught me the importance of clean potato seed and seed production systems. He came to work with me in Costa Rica during 1979/80 and together we worked on a successful project (with the Costarrican Ministry of Agriculture) for the rapid multiplication of seed potatoes.

But by the end of 1980, I was looking for a new challenge when one came to my attention back home in the UK.


In April 1981, I joined the University of Birmingham as a Lecturer in the Department of Plant Biology (as the Department of Botany had been renamed since I graduated).

I have mixed feelings about that decade. Enthusiastic for the first few years, I became increasingly disenchanted with academic life. I enjoyed teaching genetic resources conservation to MSc students from many different countries, and particularly supervision of graduate students. I also kept a research link on true potato seed (TPS) with CIP, and around 1988 participated in a three-week review of a Swiss-funded seed production project at four locations in Peru.

With members of the project review team, with team leader Carlos Valverde on the right. Cesar Vittorelli, our CIP liaison is in the middle. I don’t remember the names of the two other team members, a Peruvian agronomist, on my right, and a Swiss economist between Vittorelli and Valverde.

But universities were under pressure from the Tory government of Margaret Thatcher. It was becoming a numbers, performance-driven game. And even though the prospects of promotion to Senior Lecturer were promising (I was already on the SL pay scale), by 1991 I was ready for a change.


And so I successfully applied for the position of Head of the Genetic Resources Center at IRRI, and once again working under the CGIAR umbrella. I moved to the Philippines in July, and stayed there for the next 19 years until retiring at the end of April 2010.

I was much happier at IRRI than Birmingham, although there were a number of challenges to face: both professional and personal such as raising two daughters in the Philippines (they were 13 and 9 when we moved to IRRI) and schooling at the International School Manila.

Whereas I’d joined CIP at the beginning of its institutional journey in 1973, IRRI already had a 30 year history in 1991. It was beginning to show its age, and much of the infrastructure built in the early 1960s had not fared well in the tropical climate of Los Baños and was in dire need of refurbishment.

A new Director General, Dr Klaus Lampe (right) from Germany was appointed in 1988 with a mandate to rejuvenate the institute before it slipped into terminal decline. That meant ‘asking’ many long-term staff to move on and make way for a cohort of new and younger staff. I was part of that recruitment drive. But turning around an institute with entrenched perspectives was no mean feat.


With responsibility for the world’s largest and most important rice genebank, and interacting with genebank colleagues at all the other centers, I took on the chair of the Inter-Center Working Group when we met in Ethiopia in January 1993, and in subsequent years took a major role in setting up the System-wide Genetic Resources Program (SGRP). This was a forerunner—and a successful one at that—of the programmatic approach adopted by the CGIAR centers.

The Swiss-funded project to collect and conserve rice varieties from >20 countries, and the innovative and pioneer research about on-farm conservation were highlights of the 1990s. As was the research, in collaboration with my old colleagues at Birmingham, on the use of molecular markers to study and conserve germplasm. A first for the CGIAR centers. Indeed a first for any crop.

Helping my genebank staff grow in their positions, and seeing them promoted gave me great satisfaction. I’d inherited a staff that essentially did what they were told to do. With encouragement from me they took on greater responsibility—and accountability—for various genebank operations, and their enthusiastic involvement allowed me to make the necessary changes to how the genebank was managed, and putting it at the forefront of CGIAR genebanks, a position it retains today.

My closest friend and colleague at IRRI was fellow Brit and crop modeller, Dr John Sheehy (right). John joined the institute in 1995, and I was chair of his appointment committee. Within a short time of meeting John for the first time, I recognized someone with a keen intellect, who was not constrained by a long-term rice perspective, and who would, I believed, bring some exceptional scientific skills and thinking to the institute.

Among his achievements were a concept for C4 rice, and persuading the Bill and Melinda Gates Foundation to back a worldwide consortium (now administered from the University of Oxford) of some of the best scientists working on photosynthesis to make this concept a reality.

By May 2001, however, change was in the air. I was asked to leave the Genetic Resources Center (and research) and join IRRI’s senior management team as Director for Program Planning and Communications, to reconnect the institute with its funding donors, and develop a strategy to increase financial support. I also took IT Services, the Library and Documentation Services, Communication and Publication Services, and the Development Office under my wing.

IRRI’s reputation with its donors was at rock bottom. Even the Director General, Ron Cantrell, wasn’t sure what IRRI’s financial and reporting commitments were.

We turned this around within six months, and quickly re-established IRRI as a reliable partner under the CGIAR. By the time I left IRRI in 2010, my office had helped the institute increase its budget to US$60 million p.a.


This increased emphasis on funding was important as, by the end of the 1990s, several donors were raising concerns about the focus of the centers and how they should be supported. Furthermore, a number of external factors like the Convention on Biological Diversity (CBD, agreed by 150 countries in 1992), the growing consensus on the threat of climate change, the adoption of the UN Millennium Development Goals (MDGs, and subsequent Sustainable Development Goals or SDGs) meant that the 15 CGIAR centers as they had become could not continue with ‘business as usual’.

Until the end of the 1990s, each center had followed its own research agenda. But it became increasingly clear that they would have to cooperate better with each other and with the national programs. And funding was being directed at specific donor-led interests.

There is no doubt that investment in the CGIAR over 50 years has brought about great benefits, economically and in humanitarian ways. Investment in crop genetic improvement has been the mainstay of the CGIAR, and although research on natural resources management (NRM, such as soils and water) has been beneficial at local levels, it has not had the widespread impact that genetic improvement has.

The impact of the CGIAR is well-documented. Take this 2010 paper for example. Click on the image for more information.

My good friend from the University of Minnesota, Professor Phil Pardey and two colleagues have calculated the economic benefits of CGIAR to be worth about 10 times the cost. Impressive. Click on the image below for more information.

I have watched a couple of decades of CGIAR navel gazing as the system has tried to ‘discover’ the best modus operandi to support national programs and the billions of farmers and consumers who depend on its research outputs.

There’s no doubt these changes have increased bureaucracy across the CGIAR. One early development was the introduction of 3-year rolling Medium Term Plans with performance targets (always difficult in agricultural and biological research), which led to perverse incentives as many centers set unambitious targets that would attract high scores and therefore guarantee continued donor support.

I did not favor that approach (supported by my DG), encouraging my colleagues to be more ambitious and realistic in their planning. But it did result in conflict with an accountant in the World Bank – a ‘bean counter’ – who had been assigned to review how the centers met their targets each year. I don’t remember his name. We had endless arguments because, it seemed to me, he simply didn’t understand the nature of research and was only interested if a particular target had been met 100%. Much as I tried to explain that reaching 75% or perhaps lower could also mean significant impact at the user level, with positive outcomes, he would not accept this point of view. 100% or nothing! What a narrow perspective.

A former colleague in the CGIAR Independent Evaluation Arrangement office in Rome and a colleague have written an excellent evaluation of this performance management exercise, warts and all. Click on the image below to access a PDF copy.

Now we have OneCGIAR that is attempting to make the system function as a whole. Very laudable, and focusing on these five highly relevant research initiatives. Click on the image below for more information.

What I’m not sure about are the levels of management that the new structure entails: global directors, regional directors, program or initiative leaders, center directors (some taking on more than one role). Who reports to whom? It seems overly complicated to my simple mind. And there is certainly less emphasis on the centers themselves – despite these being the beating heart of the system. It’s not bureaucrats (for all their fancy slogans and the like) who bring about impacts. It’s the hard-working scientists and support staff in the centers.


Nevertheless, looking back on 50 years, I feel privileged to have worked in the CGIAR. I didn’t breed a variety of rice, wheat, or potatoes that were grown over millions of hectares. I didn’t help solve a water crisis in agriculture. But I did make sure that the genetic resources of potato and rice that underpin future developments in those crops were safe, and ready to be used by breeders whenever. I also helped IRRI get back on its feet, so to speak, and to survive.

And along the way, I did make some interesting contributions to science, some of which are still being cited more than four decades later.

I’m more than grateful for the many opportunities I’ve been afforded.