Skip to main content

The Next Generation Scientist program: capacity-building for future scientific leaders in low- and middle-income countries



Scientific and professional development opportunities for early career scientists in low- and middle- income countries (LMICs) are limited and not consistent. There is a disproportionately low number of biomedical and clinical researchers in LMIC’s relative to their high burden of disease, a disparity that is aggravated by emigration of up to 70% of scientists from their countries of birth for education and employment elsewhere. To help address this need, a novel University-accredited, immersive fellowship program was established by a large public-academic-private network. We sought to describe the program and summarize progress and lessons learned over its first 7-years.


Hallmarks of the program are a structured learning curriculum and bespoke research activities tailored to the needs of each fellow. Research projects expose the scientists to state-of-the-art methodologies and leading experts in their fields while also ensuring that learnings are implementable within their home infrastructure. Fellows run seminars on drug discovery and development that reinforce themes of scientific leadership and teamwork together with practical modules on addressing healthcare challenges within their local systems. Industry mentors achieve mutual learning to better understand healthcare needs in traditionally underserved settings. We evaluated the impact of the program through an online survey of participants and by assessing research output.


More than 140 scientists and clinicians from 25 countries participated over the 7-year period. Evaluation revealed strong evidence of knowledge and skills transfer, and beneficial self-reported impact on fellow’s research output and career trajectories. Examples of program impact included completion of post-graduate qualifications; establishment and implementation of good laboratory- and clinical- practice mechanisms; and becoming lead investigators in local programs. There was a high retention of fellows in their home countries (> 75%) and an enduring professional network among the fellows and their mentors.


Our experience demonstrates an example for how multi-sectoral partners can contribute to scientific and professional development of researchers in LMICs and supports the idea that capacity-building efforts should be tailored to the specific needs of beneficiaries to be maximally effective. Lessons learned may be applied to the design and conduct of other programs to strengthen science ecosystems in LMICs.

Peer Review reports


Establishing sustainable research in science ecosystems in low- and middle-income countries (LMICs) is an urgent priority but no small task [1,2,3]. In these countries, the number of biomedical and clinical researchers is disproportionately low relative to the high burden of disease, a disparity that is aggravated by emigration of up to 70% of scientists from their countries of birth in pursuit of education and employment elsewhere [4,5,6]. To break this self-propagating cycle, scientific research infrastructures in LMICs will need to develop to a tipping point beyond which scientists have greater professional incentives to remain in their home countries. There have been major efforts to strengthen science systems in LMICs, including collaborations focused on capacity-building involving local research institutions and global stakeholders. These programs have met with various levels of success [7,8,9,10,11]. However, much more progress is needed.

Achievements in science and medicine that impact humanity in LMICs ultimately depend on communities of scientists and clinicians that live and work in those regions. Human capital development is an important component to improvement of science and medical capacity in LMICs [2, 3]. Local scientific training curricula that are contemporary and high-quality have expanded over the past decade [12, 13]. To maintain this momentum, comprehensive knowledge and skills training must continue and be expanded across a range of scientific disciplines.

In response to needs for enhanced professional development for scientists in LMICs, a novel fellowship training program has been implemented over the past 7 years by a network of public, academic and private partners. Target beneficiaries were Master’s, PhD, and post-doctoral scientists and clinicians who wished to pursue scientific and leadership skills development to complement instruction at their home institution. The program’s central theme was individualized mentoring, and research activities were tailored to the unique needs of each participant. The core program took place annually over a 3-month period in Switzerland, where fellows received on-site tutoring at Novartis’ research and development laboratories followed by accreditation from the University of Basel. Mentoring and collaboration often continued long after completion of the core program. The initiative was named the “Next Generation Scientist” (NGS) program to highlight its stated objective of contributing to the development of future scientific leaders in LMICs.

The NGS program recently graduated its 140th fellow. To our knowledge, there have been few capacity-building efforts designed specifically for scientists in LMICs, and still fewer that have attempted to assess their impact and successes [7]. We sought to summarize the progress and lessons learned and to evaluate outcomes including research output and influence on the participants’ subsequent career trajectories.


Program origin and governance

The NGS program was established in 2011 as part of a multi-faceted effort at Novartis to help build science capacity in LMICs [14,15,16], and to provide opportunities for industry scientists and clinicians to better understand medical needs in diverse, traditionally underserved groups [17]. The goal was to create an environment for mutual learning [18] through scientist-to-scientist interactions clustered around research activities tailored to the unique needs of each fellow. Since 2014, the program has been jointly coordinated with the University of Basel as a natural extension of the university’s long-standing work in LMICs and as a leading center in Switzerland for Africa-focused academic initiatives.

Fellows and scientific mentors

Each year from 2011 to 2017, an open call for applications was disseminated through public channels. Applicants were entered into a rigorous selection process comprising a dossier review (curriculum vitae, description of research interests, and essay-style letters of motivation and support) and up to three rounds of interviews conducted by telephone or in person. Interviews were led by academic researchers, prospective scientific mentors, and trained human resource professionals. Key selection criteria included: academic credentials of the candidate (Master’s equivalent and above); ability to match applicants’ research interests and desired skills with an appropriate scientific mentor and host laboratory; and candidates’ long-term commitment to conduct biomedical or clinical research in their home country. The University of Basel and Novartis jointly approved the final cohort of candidates, which typically consisted of 20–25 fellows each year.

Scientific mentors at the University of Basel and Novartis participated in a volunteer capacity. Generally, this was because they wanted to engage in an academic-style mentoring program, were interested in the possibility of scientific collaborations with research institutions in LMICs, or were motivated by the opportunity to personally contribute to the advancement of science in LMICs. Mentors were selected based on their specialties and their anticipated ability to dedicate sufficient effort and be effective tutors. Many mentors chose to participate over several years. Mentors were also offered access to mentorship training programs and were provided with operational support from a small core team at University of Basel and Novartis responsible for management of the program. The mentors also participated in periodic meetings for peer support and sharing of mentorship best practices. Fellows and mentors jointly developed a research plan according to the fellow’s interests and skills.

Program structure

The 3-month core program comprised two main components: a bespoke research project and a formally structured science and leadership skills development program. The research project occupied the fellow for approximately 80% of the time spent on-site and was designed to be sustainably implementable within infrastructure at the fellow’s home institution. Research interests of the selected candidates were identified from their application dossiers and matched with prospective mentors that had similar interests and relevant skillsets. The scope of work for each fellow was then iteratively refined through virtual (telephone and email) discussions between candidates and mentors. Whenever feasible, candidates’ home supervisors joined the pre-fellowship discussions to contribute recommendations for technical aspects that would benefit the fellow and the home institution. Once selected, mentors and mentees were typically in close contact leading up to commencement of the on-site stay (e.g. to exchange background materials; to attend to logistics of data and sample transfer; and to guide the candidate to learn basic skills in preparation for training that they would receive during the fellowship). Topics in the scientific curriculum were allocated to groups of fellows who planned and organized seminars which facilitated bi-directional interactions with senior experts. The leadership skills program comprised workshops focused on written and oral scientific communication, self-awareness, and appreciative inquiry [19]. Workshops were highly interactive, immersive experiences designed to enhance decision-making skills and improve team leadership and management capability. Over the 3-month period, fellows regularly convened themselves to reflect on tactics to implement new approaches and methods at their home institutions.

In the final week of the program, fellows formally presented their research project in poster format at a public scientific symposium. The graduation event typically included oral presentations by a small number of graduating fellows and by inspiring leaders in health and science from LMICs. The University of Basel subsequently awarded a University certificate and post-graduate credits using the European Credit Transfer and Accumulation System, a transferable standard for comparing study attainment and performance in higher education across Europe [20].

Logistics and funding

The University of Basel organized and funded training events that were hosted at their campus. Novartis funded travel, accommodation, health insurance, immigration logistics, and provided a stipend. Laboratory-associated costs were borne by the Novartis hosting laboratories. Every effort was made to ensure that participation in the program was cost-neutral to the fellows and their home institutions. The program was compliant with Swiss law and ethical, legal and financial guidelines of the University of Basel and Novartis.

Networking and post-fellowship contact

Participants were co-located in student accommodation which allowed for the development of a sense of community among fellows, provided an environment to conduct group project work in an informal setting, and helped the development of a sustainable peer social and professional network. After the fellowship, ongoing exchanges among fellows and their University of Basel and Novartis mentors were encouraged.

Data sources and analysis methods

Demographic characteristics were extracted from fellows’ application dossiers. Fellows’ research deliverables (including research poster content and peer-reviewed journal articles) were used to summarize and categorize research activities.

Feedback was continually received over the evaluation period through spontaneous verbal and electronic communication. In addition, a global summit was convened in 2014 and attended by approximately 60 fellows who provided updates on their professional achievements at that time.

In February 2017, an on-line follow-up survey (Additional file 1) was distributed to all NGS fellows who had participated in the program from 2011 to 2016. The 2017 cohort did not participate in this survey. The survey consisted of 18 multiple-choice and open-ended questions that assessed fellows’ academic, career and professional status, and evaluated their perceptions of impact of the NGS program on their professional trajectory and achievements.

Data and graphical analysis were performed using RStudio (, using library packages such as ggplot2 for generation of Figs. 1 and 2.

Fig. 1
figure 1

Geographic distribution of Next Generation Scientist fellows. NGS fellows were based at institutions in low- and middle-income countries in Africa, Asia, Europe, and Latin America. Since 2011, 143 fellows from 25 countries have participated. Countries that contributed the highest number of fellows were South Africa (n = 38) in the Africa region (62%) and Brazil (n = 15) in the Americas (22%)

Fig. 2
figure 2

Total number of peer-reviewed publications before- and after- participation in the program. The column on the extreme left shows data for all survey respondents as a boxplot. The horizontal bar inside the box shows the median; the box encloses the inter-quartile range i.e. 50% of the data. The whiskers show the interval of values outside the box and values far outside are represented by points. The subsequent columns show before-after publication output for each survey respondent from 6 cohorts, with the thick red line showing the median for the cohort. Responses where before and after outputs were both zero have been excluded. The 2017 cohort did not participate in the follow-up survey


There was an increasing trend in the number of applicants to the NGS program over the duration of the program, with a notable increase after the University of Basel joined in 2014 as the co-host and accrediting academic partner (Table 1). One-hundred and forty three scientists and clinicians from LMICs took part during the 2011–2017 period reported in this paper. Demographic data and research descriptions for all fellows selected are shown in Table 2. Participants came from 73 institutions in 25 countries: Angola, Argentina, Brazil, Cameroon, China, Costa Rica, Egypt, Ethiopia, Ghana, Kenya, Malaysia, Mexico, Namibia, Nigeria, Peru, Philippines, Russia, South Africa, Tanzania, Uganda, Ukraine, Venezuela, Vietnam, Zambia and Zimbabwe (Fig. 1).

Table 1 Number of applicants, number selected and number of survey respondents per cohort year
Table 2 Demographics of participants at the start of the 3-month fellowship (n = 143)

The highest proportion of fellows was based in Africa (62%). There was a predominance of doctoral or early post-doctoral scientists (70%) and an even distribution by gender (72 female and 71 male participants).

The majority (78%) of participants joined the program to learn a new research methodology for implementation back at their home institution. Others chose to develop skills relating to clinical trials; access laboratory equipment, infrastructure, and expertise; and/or use the fellowship to facilitate analyses of their own samples or data. Several fellows concentrated on skills relating to natural products, reflecting their continuing relevance to research programs in their local environments.

Fellows’ scientific focus was spread across basic research laboratories, clinical research departments, and drug formulation laboratories. Specific disease area interests were split between communicable and non-communicable diseases. The group comprised about 22% of clinician-scientists (typically MD or equivalent with MSc, PhD or Post-doc) most of whom were hosted in clinical research departments.

Follow-up data (Table 3 and Fig. 2) describing outcomes in the post-fellowship period were available for 95% of fellows from the 2011–2016 cohorts (6 fellows did not respond to the follow-up survey). Table 3 indicates that there was significant professional development as measured by progression to higher levels of trainings or employment. Most participants remained in the public sector and in academic settings in their countries of origin. Several fellows (11%) reported that they had been appointed to positions of leadership such as head of their clinical department or research unit.

Table 3 Professional progression of participants in the post-fellowship period (n = 120 at baseline; n = 114 at follow-up)

Figure 2 illustrates the total number of manuscripts published in peer-reviewed journals before- and after participation in the fellowship as reported in the survey. These are shown for the full group of fellows and separately for each annual cohort of participants. An upward slope of the median is noted for the earlier cohorts (e.g. before 2014) and a flattening of the slope for the later cohorts, which likely reflects the longer period that the earlier cohorts had relative to the later cohorts to develop their research careers and publish peer-reviewed manuscripts.

Table 4 lists illustrative examples of program impact on fellows’ careers and contributions to various scientific disciplines. This table highlights more than 20 publications by NGS fellows and how their projects transferred value to their home institutions. No comparative control cohort data are available.

Table 4 Examples of NGS program outputs and outcomes

The follow-up survey revealed an enduring network after completion of the 3-month fellowship. Nearly two-thirds of participants (64%) reported ongoing regular contact with other fellows and 35% reported sporadic contact. Only 3 fellows reported having no continuing contact with their peers. Ongoing contact was also observed between fellows and their mentors at University of Basel or Novartis; 86% of fellows reported regular or sporadic contact. Active collaboration, as defined by ongoing project-related interactions, was reported by 8% of fellows for peer-to-peer partnerships and by 12% of fellows for fellow-to-mentor partnerships.

In open-ended comments on the follow-up survey, NGS fellows reported concrete scientific benefits such as access to equipment and data; expediting completion of post-graduate qualification; and “soft” benefits including networking, reputation, and broadened perspectives on work ethic and culture. Fellows also reported improvements in research productivity via publications, conference presentations, success with funding applications and involvement in clinical trials. As a complement to individual scientific research development, the respondents also provided examples where they themselves transferred skills to colleagues at home. Table 5 provides a summary of the benefits of the program as reported by NGS fellows and their mentors.

Table 5 Program benefits reported by NGS fellows, home institution supervisors and host institution mentors


A 7-year structured, immersive mentorship program contributed to professional development for a carefully selected group of 143 scientists and clinicians from 25 LMICs. A unique feature of the program was the bringing together of cohorts of researchers at the launch stage of their scientific careers. This appears to have facilitated a sustained network of scientists in LMICs despite the relatively short 3-month duration of the on-site component. The governance of the NGS program was also novel, with voluntary shared responsibility by a range of academic, public, and private partners. Understanding key enablers of the program, and its limitations up until now, is fundamental to improving the program in the future and may inform the design and implementation of similar capacity-building efforts in LMICs.

A widely acknowledged success that was highlighted by fellows and mentors was the opportunity for mutual learning in topic areas that would not easily be attained through other mechanisms. By design, fellows benefited from specific scientific and professional development training. In many cases, mentors similarly benefited from the knowledge exchange (e.g., relating to natural products; pharmacogenetics in diverse populations; and first-hand accounts of health priorities). In nearly all cases, mentors stated that the lessons they learned about patients, diseases, and health systems in LMICs broadened their perspectives about science and medicine globally in ways that influenced their own professional and personal activities. This gives credence to the Nigel Crisp assertion that “rich countries can learn a great deal about health and health services from poorer ones and that combining the learnings from rich and poor countries can give us new insights into how to improve health” [18]. We suspect that the reciprocated respect that developed between fellows and mentors because of shared learning experiences played an important role in paving the way for continued joint collaborations in the post-fellowship period.

Another program enabler was the flexibility associated with fellows’ research curricula. Fellows were not pigeon-holed towards pre-determined activities—rather, research programs were individualized according to the needs of each fellow, agreement between fellows and mentors, and relevance to priorities at fellows’ home institutions and countries. The hosting laboratories at Novartis needed to be able to support the science that the fellow would conduct, but the fellow’s research program did not need to directly advance the research agenda of the hosting laboratory. Providing support for fellows’ research interests was not always entirely straightforward. For example, some projects involved analysis of plant or biological samples from fellows’ home institutions, which required considerable effort by both the home and host institutions to ensure compliance with the ethical-legal regulations associated with cross-border transfer of materials. The benefit, however, was scientific progress and attainment of valuable experience on both sides for implementing globally-focused scientific research. For all projects, research success was a result of thorough planning before the fellowship and on-going interactions afterwards. It was felt that tailoring activities to the needs of fellows was a significant factor in the impressive scientific productivity that resulted (for example see the peer-reviewed publications cited in Table 4) despite the short 3-month duration of the on-site phase.

The high retention of fellows in their home countries (> 75%) and employment in the public or academic sector is noteworthy - only 4 scientists reported working for a pharmaceutical company after completion of their studies in contrast to over 60% being employed in the public or academic sector (Table 3). Although we acknowledge that private sector employment for highly trained researchers is scarce in LMICs, we were nevertheless encouraged by this result, given valid concerns that inviting high caliber scientists into well-resourced research environments might further contribute to the “brain drain” from these countries [4,5,6]. Factors related to this success likely include: an unambiguously stated goal of the program for local capacity development rather than staff recruitment; a rigorous selection process capable of identifying candidates with a desire to contribute to their local healthcare research; and the short 3-month on-site stay. In some cases, this was assisted by strong links with home supervisors who provided an enabling home base to return to and continue on a rejuvenated career trajectory.

The NGS program’s multi-sectoral academic-public-private partnership model worked well. Involvement of the University of Basel as a coordinating entity was instrumental in providing academic credibility, and the collaborative framework that developed with science as an organizing principle helped the industry partner to be viewed as an equal contributor rather than simply a funding source. Within LMICs, the program often served as a complement to locally funded government or non-governmental capacity-building initiatives and in some instances stimulated the establishment of new partnership programs.

Much has been written to acknowledge the secondary effects of strengthening research capacity on health in under-resourced environments. These viewpoint and perspectives papers typically highlight existing programs and advocate for new collaborative efforts involving local and international governments, private sector groups and large funding bodies [2, 3]. The program described here has similarities in its genesis and goals with the Career Development Fellowship (CDF), jointly administered by the World Health Organization’s Special Programme for Research and Training in Tropical Diseases (WHO/TDR) and the European & Developing Countries Clinical Trials Partnership (EDCTP) [7]. The CDF was founded as a partnership involving a pharmaceutical company, GlaxoSmithKline Biologicals, and has been independently evaluated as being relevant, efficient and effective with potential for impact and sustainability. However despite expansion to include multiple partners, the number of participants reported in the evaluation remain modest [7], which we believe underscores the need for more programs such as these.

Future priorities for the NGS program will be to increase involvement of the home academic supervisors. Our experience has been that home supervisor involvement leads to more successful project outcomes, whereas a lack of involvement could make the reintegration to the home laboratories more difficult. Fellows have highlighted that whilst techniques are relatively easy to transfer back, research culture traits can be more difficult due to a confounding interplay of culture and infra-structure deficits between research sites located in high-income countries and the academic centers in LMIC settings. Closer engagement with the home mentors and institutions might represent one component of a solution. Ideally this would be coupled with enriched and expanded post-fellowship activities. There has been substantial interest from NGS fellows in formalizing post-fellowship interactions, in part due to recognition of the benefits that could be realized by capitalizing on their large, growing network of emerging scientific leaders in LMICs. Preferably, this will be accomplished by putting primary governance of the activities with the fellows themselves. As with many capacity-building efforts, we are currently faced with the challenge of identifying methods for scaling up the program while maintaining the individualized approach that is thought to be crucial to the program’s success. We have initiated exploratory high-level discussions with several major research funding organizations and are hopeful that the program can be grown in future program cycles.

The above benefits described notwithstanding, we acknowledge that there are limitations to capacity-building via the approach described, and there were also limitations to our ability to evaluate the program. As with all survey-type methodologies there is the possibility of reporting bias, though we took the exceedingly high response rate (ranging 87–100% across the 7 cohorts of participants) as a sign that reporting bias in this evaluation was likely to be minimal. To mitigate potential bias by the program funders (Novartis and the University of Basel) in the evaluation of the program, we assembled a multi-sectoral public-academic-private team to conduct the study reported here. This team included some supervisors of NGS fellows from their home institutions and were thus in a position to contextualise the overall survey data against their own personal impressions of the impact of the program on their students. The core component of the NGS program is a 3-month intensive mentored research experience, and there are natural confines to the extent of professional development that can be achieved in this time-limited period. While for many participants the core program set into motion long-term collaborative activities (which was encouraged), these activities were not supported with dedicated resources. Another potential inherent weakness with the program design was mentoring of fellows outside of their home institution. This required added financial resources and logistical considerations, and temporarily removed scientists from the precise environments where capacity-building is needed. However, the rationale was to enable sufficient exposure to new resources (e.g., other scientists, laboratories, tools, and technologies) that would enrich their professional development; in addition, this approach served to facilitate peer-to-peer networks that would likely not have been established to the same degree without bringing fellows together face-to-face. Quantifying and valuing the multiple hard and soft dimensions of long-term impact of capacity development programs remain challenging. Logistical impracticalities preclude the conduct of a controlled study – we propose the development of methods to quantify the social impact of capacity development programs in monetary terms, similar to the valuation of an environmental footprint [21, 22]. The current evaluation may have been confounded because the NGS program application process favored selection of high-performing candidates, and because fellows were unable to keep responses in the online follow-up survey confidential from the program organizers who administered the survey. Nevertheless, we believe that the very high response rate to the follow-up survey, which was conducted up to 6 years after participation, coupled with meaningful self-reported outputs, is an indicator that many fellows felt that the NGS program had tangible benefits to their professional development.


This 7-year structured, immersive mentorship program with 143 scientists and clinicians from 25 LMICs provides an example for how multi-sectoral partners can contribute to scientific and professional development of researchers in LMICs. Our experience substantiates the view that capacity-building efforts in LMICs should be tailored to the specific needs of beneficiaries to be maximally effective. Lessons learned may be applied to the design and conduct of other programs to strengthen science ecosystems in LMICs.



Low- and middle- income countries


Next Generation Scientist


  1. Deckelbaum RJ, Ntambi JM, Wolgemuth DJ. Basic science research and education: a priority for training and capacity building in developing countries. Infect Dis Clin N Am. 2011;25:669–76 x.

    Article  Google Scholar 

  2. Kay S. Africa's leadership in biomedical research: Shifting the center of gravity. Sci Transl Med. 2015;7:314ed13.

    Article  Google Scholar 

  3. Whitworth JA, Kokwaro G, Kinyanjui S, Snewin VA, Tanner M, Walport M, et al. Strengthening capacity for health research in Africa. Lancet. 2008;372:1590–3.

    Article  Google Scholar 

  4. Aluttis C, Bishaw T, Frank MW. The workforce for health in a globalized context--global shortages and international migration. Glob Health Action. 2014;7:23611.

    Article  Google Scholar 

  5. Clemens MA, Pettersson G. New data on African health professionals abroad. Hum Resour Health. 2008;6:1.

    Article  Google Scholar 

  6. Mills EJ, Kanters S, Hagopian A, Bansback N, Nachega J, Alberton M, et al. The financial cost of doctors emigrating from sub-Saharan Africa: human capital analysis. BMJ. 2011;d7031:343.

    Google Scholar 

  7. Kaser M, Maure C, Halpaap BM, Vahedi M, Yamaka S, Launois P, et al. Research capacity strengthening in low and middle income countries - an evaluation of the WHO/TDR career development fellowship Programme. PLoS Negl Trop Dis. 2016;e0004631:10.

    Google Scholar 

  8. WHO/TDR: TDR 2015 annual report: Partnering for innovation. 2016.

  9. Zachariah R, Rust S, Berger SD, Guillerm N, Bissell K, Delaunois P, et al. Building global capacity for conducting operational research using the SORT IT model: where and who? PLoS One. 2016;e0160837:11.

    Google Scholar 

  10. The H3Africa Consortium. Research capacity. Enabling the genomic revolution in Africa. Science. 2014;344:1346–8.

    Article  Google Scholar 

  11. Ramsay M. Growing genomic research on the African continent: the H3Africa consortium. S Afr Med J. 2015;105:1016–7.

    Article  Google Scholar 

  12. Celletti F, Reynolds TA, Wright A, Stoertz A, Dayrit M. Educating a new generation of doctors to improve the health of populations in low- and middle-income countries. PLoS Med. 2011;8:e1001108.

    Article  Google Scholar 

  13. de Oliveira NA, Luz MR, Saraiva RM, Alves LA. Student views of research training programmes in medical schools. Med Educ. 2011;45:748–55.

    Article  Google Scholar 

  14. Gutierrez MM, Pillai GC, Felix S, Romero F, Omondi OK, Owusu-Agyei S, et al. Building capability for clinical pharmacology research in sub-Saharan Africa. In: Clin Pharmacol Ther; 2017.

    Google Scholar 

  15. Access to Medicines Index. Approach to R&D capacity building: Novartis takes a comprehensive approach to targeting local R&D capacity building needs. 2016. weblink: Accessed 4 Nov 2017.

  16. Pillai G, Davies G, Denti P, Steimer JL, McIlleron H, Zvada S, et al. Pharmacometrics: opportunity for reducing disease burden in the developing world: the case of Africa. CPT Pharmacometrics Syst Pharmacol. 2013;e69:2.

    Google Scholar 

  17. Porter ME, Kramer MR. Creating shared value: how to reinvent capitalism and unleash a wave of innovation and growth. Harv Bus Rev. 2011;January-February:62–77.

  18. Crisp N. Turning the world upside down: the search for global health in the twenty-first century. London: Royal Society of Medicine Press; 2010.

    Book  Google Scholar 

  19. Bushe GR. The Appreciative Inquiry Model. In: Kessler EH, editor. Encyclopedia of Management Theory, Volume 1. Thousand Oaks: Sage Publications; 2013. p. 41–44.

  20. European Commission. European Credit Transfer and Accumulation System. 2015. weblink: Accessed 5 Oct 2017.

  21. WBCSD. World Business Council for Sustainable Development. 2017. weblink: Accessed 5 Oct 2017.

  22. WBCSD. Operationalizing Impact Valuation. 2017. weblink: Accessed 5 Oct 2017.

  23. Njuguna NM, Umehara KI, Huth F, Schiller H, Chibale K, Camenisch G. Improvement of the chemical inhibition phenotyping assay by cross-reactivity correction. Drug Metab Pers Ther. 2016;31:221–8.

    Google Scholar 

  24. Maganda B, Heudi O, Cortinovis A, Picard F, Kretz O, Minzi O. A fast and reliable reversed phase high performance liquid chromatography method for simultaneous determination of selected anti-retroviral and lumefantrine in human plasma. J Chromatogr B Analyt Technol Biomed Life Sci. 2013;919-920:52–60.

    Article  Google Scholar 

  25. Serer MI. Estudio de la Síntesis de flavinas en Brucella abortus como potencial blanco terapéutico contra la brucelosis. Facultad de Ciencias Exactas y Naturales. Universidad de Buenos Aires; 2015.

  26. Serer MI, Bonomi HR, Guimaraes BG, Rossi RC, Goldbaum FA, Klinke S. Crystallographic and kinetic study of riboflavin synthase from Brucella abortus, a chemotherapeutic target with an enhanced intrinsic flexibility. Acta Crystallogr D Biol Crystallogr. 2014;70:1419–34.

    Article  Google Scholar 

  27. Fasinu PS, Gutmann H, Schiller H, Bouic PJ, Rosenkranz B. The potential of Hypoxis hemerocallidea for herb-drug interaction. Pharm Biol. 2013;51:1499–507.

    Article  Google Scholar 

  28. Fasinu PS, Gutmann H, Schiller H, James AD, Bouic PJ, Rosenkranz B. The potential of Sutherlandia frutescens for herb-drug interaction. Drug Metab Dispos. 2013;41:488–97.

    Article  Google Scholar 

  29. Ferreira RR, de Souza EM, de Oliveira FL, Ferrao PM, Gomes LH, Mendonca-Lima L, et al. Proteins involved on TGF-beta pathway are up-regulated during the acute phase of experimental Chagas disease. Immunobiology. 2016;221:587–94.

    Article  Google Scholar 

  30. Nordling L. Made in Africa. Nat Med. 2013;19:803–6.

    Article  Google Scholar 

  31. Sinxadi PZ, Leger PD, McIlleron HM, Smith PJ, Dave JA, Levitt NS, et al. Pharmacogenetics of plasma efavirenz exposure in HIV-infected adults and children in South Africa. Br J Clin Pharmacol. 2015;80:146–56.

    Article  Google Scholar 

  32. de Melo AC, Grazziotin-Reisner R, Erlich F, Fontes Dias MS, Moralez G, Carneiro M, et al. A phase I study of mTOR inhibitor everolimus in association with cisplatin and radiotherapy for the treatment of locally advanced cervix cancer: PHOENIX I. Cancer Chemother Pharmacol. 2016;78:101–9.

    Article  Google Scholar 

  33. Assad DX, Elias ST, Melo AC, Ferreira CG, De Luca CG, Guerra EN. Potential impact of mTOR inhibitors on cervical squamous cell carcinoma: a systematic review. Oncol Lett. 2016;12:4107–16.

    Article  Google Scholar 

  34. Nogueira-Rodrigues A, Melo AC, Werutsky G, Garces AH, Ferreira CG. Exploiting HPV-induced carcinogenesis for a rational drug development in cervical Cancer. Curr Cancer Drug Targets. 2016;16:249–60.

    Article  Google Scholar 

  35. Garces AH, Mora PA, Alves FV, Do Carmo CC, Grazziotin R, Fernandes AC, et al. First-line paclitaxel and carboplatin in persistent/recurrent or advanced cervical cancer: a retrospective analysis of patients treated at Brazilian National Cancer Institute. Int J Gynecol Cancer. 2013;23:743–8.

    Article  Google Scholar 

  36. Yimer G, Amogne W, Habtewold A, Makonnen E, Ueda N, Suda A, et al. High plasma efavirenz level and CYP2B6*6 are associated with efavirenz-based HAART-induced liver injury in the treatment of naive HIV patients from Ethiopia: a prospective cohort study. Pharmacogenomics J. 2012;12:499–506.

    Article  Google Scholar 

  37. May A, Hazelhurst S, Li Y, Norris SA, Govind N, Tikly M, et al. Genetic diversity in black south Africans from Soweto. BMC Genomics. 2013;14:644.

    Article  Google Scholar 

  38. Carstens N, Williams S, Goolam S, Carmichael T, Cheung MS, Buchmann-Moller S, et al. Novel mutation in the CHST6 gene causes macular corneal dystrophy in a black south African family. BMC Med Genet. 2016;17:47.

    Article  Google Scholar 

  39. Omwoyo WN, Melariri P, Gathirwa JW, Oloo F, Mahanga GM, Kalombo L, et al. Development, characterization and antimalarial efficacy of dihydroartemisinin loaded solid lipid nanoparticles. Nanomedicine. 2016;12:801–9.

    Article  Google Scholar 

  40. Omwoyo WN, Ogutu B, Oloo F, Swai H, Kalombo L, Melariri P, et al. Preparation, characterization, and optimization of primaquine-loaded solid lipid nanoparticles. Int J Nanomedicine. 2014;9:3865–74.

    Google Scholar 

  41. Tukulula M, Njoroge M, Mugumbate GC, Gut J, Rosenthal PJ, Barteau S, et al. Tetrazole-based deoxyamodiaquines: synthesis, ADME/PK profiling and pharmacological evaluation as potential antimalarial agents. Bioorg Med Chem. 2013;21:4904–13.

    Article  Google Scholar 

  42. Ekuadzi E, Dickson RA, Fleischer TC, Amponsah IK, Pistorius D, Oberer L. Chemical constituents from Gouania longipetala and Glyphaea brevis. Nat Prod Res. 2014;28:1210–3.

    Article  Google Scholar 

  43. Annan K, Ekuadzi E, Asare C, Sarpong K, Pistorius D, Oberer L, et al. Antiplasmodial constituents from the stem bark of Polyalthia longifolia var pendula. Phytochem Lett. 2015;11:28–31.

    Article  Google Scholar 

Download references


The authors gratefully acknowledge all NGS fellows and the large number of mentors and scientific advisors that participated in the program over the past 7 years. We thank Henri-Michel Yéré for assisting with development of the leadership curriculum. We thank Renata Lazarova (etera GmbH), Bill Young (YoungVienne, Inc.), Andy Spitler (Digitalwerk), and Pamela Alean-Kirkpatrick (Alean-Academics) for the scientific communications training. We acknowledge the work of Rita Michel and the human resources team led by Sandro Crameri for facilitating program logistics. We thank Oliver Sander for support with survey analyses.


There was no specific funding for this report. A description of the funding for the program forms part of the manuscript write-up and is replicated here: "The University of Basel organized and funded training events that were hosted at their campus. Novartis funded travel, accommodation, health insurance, immigration logistics, and provided a stipend". Laboratory-associated costs were borne by the Novartis hosting laboratories. Every effort was made to ensure that participation in the program was cost-neutral to the fellows and their home institutions.

Availability of data and materials

The survey instrument is available as Additional file 1. The datasets generated and/or analysed during the current study are not publicly available due to agreement with the survey respondents that their information will be reported in summary form in tables and figures, but are available from the corresponding author on reasonable request and subject to confirmation by the survey respondents.

Author information

Authors and Affiliations



Substantial contributions to the conception and design of the program, or interpretation of data for this report: GP, KC, EC, AK, MG, FM, CS, CM, PD, GM, MR, BO, EM, RG, CF, FG, WD, JS, BT, HK. Substantial contributions to the acquisition and analysis of data: GP, AK, EC, CS, JS, MG, HK. Wrote the first draft of the manuscript: GP, JS, AK, MG. Revised the first draft critically for important intellectual content: GP, KC, EC, AK, MG, FM, CS, CM, PD, GM, MR, BO, EM, RG, CF, FG, WD, JS, BT, HK. Read and approved the final version of the manuscript: GP, KC, EC, AK, MG, FM, CS, CM, PD, GM, MR, BO, EM, RG, CF, FG, WD, JS, BT, HK.

Corresponding author

Correspondence to Akiko N. Keller.

Ethics declarations

Ethics approval and consent to participate

This report was categorized as a “quality assurance and practice experience report”, and a specific ethics committee approval was deemed unnecessary according to Swiss national guidelines ( see pages 24–25). The report includes data from a survey of NGS fellows, for which all respondents confirmed their written consent to participate in the evaluation of the program. Respondents who are cited in Table 4 and who are identifiable via their published literature reviewed the text and provided additional written permission and specific approval for how their experience in the program has been described in this manuscript. The program that is described in this report was compliant with Swiss law and ethical, legal and financial guidelines of the University of Basel and Novartis.

Consent for publication

All respondents confirmed their written consent to participate in the evaluation of the program. Respondents who are cited in Table 4 and who are identifiable via their published literature reviewed and edited the text describing their work, and provided their written approval and specific written permission for how their experience in the program has been described in this manuscript.

Competing interests

GP, AK, MG, FM, JS, BT were employees of Novartis at the time of this study. GP is an employee of CP+ Associates GmbH, a consulting firm focused on scientific capability development in low- and middle-income countries.

Publisher’s Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Additional file

Additional file 1:

NGS Survey Instrument. (PDF 156 kb)

Rights and permissions

Open Access This article is distributed under the terms of the Creative Commons Attribution 4.0 International License (, which permits unrestricted use, distribution, and reproduction in any medium, provided you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made. The Creative Commons Public Domain Dedication waiver ( applies to the data made available in this article, unless otherwise stated.

Reprints and Permissions

About this article

Verify currency and authenticity via CrossMark

Cite this article

Pillai, G., Chibale, K., Constable, E.C. et al. The Next Generation Scientist program: capacity-building for future scientific leaders in low- and middle-income countries. BMC Med Educ 18, 233 (2018).

Download citation

  • Received:

  • Accepted:

  • Published:

  • DOI:


  • Capacity development
  • Capability development
  • Research and Development
  • Public health
  • Education
  • Fellowship
  • Postgraduate research
  • Early career researcher development