The capacity to build and hold a research workforce across fields, from new doctorates to established investigators.
The Capability Development Index tracks the events that move a capability — operational use, technical breakthroughs, procurement decisions and the industrial base behind them — and places each on the record with the date it happened.
Recent developments cover the current period. Historical developments are the inflection points that produced Research Workforce as it stands today.
The monastery and university in what is now Bihar hosted thousands of students and monks studying philosophy, medicine, logic and mathematics, drawing scholars from as far as China, Korea and Southeast Asia for several centuries.
The keju system tested candidates on classical learning and administration rather than birth, creating a channel through which talented individuals could enter state service, a model that endured for over a millennium and influenced civil service systems elsewhere.
Its model of organised advanced study, later copied across Europe, established the university as the institution through which each generation of specialists and scholars would be trained.
Dozens of officials and students spent nearly two years touring the United States and Europe, returning with knowledge that shaped Japan's rapid Meiji-era build-up of technical education and industry.
For much of the latter part of the twentieth century firms built their skilled workforce internally, with heavy emphasis on training and evaluating managerial staff. This produced an excess supply of middle-management talent and established internal development as the dominant model of building a talent pipeline.
Programmes to relocate specialists in rocketry, aviation and other fields after the Second World War added substantially to American technical talent, most visibly through later contributions to the space programme.
Funded initially through the sale of surplus war material, the programme sent scholars and students across borders in both directions, becoming a model that other countries later copied for building international research and academic ties.
The institute became the model for a national network of IITs that trained generations of engineers, many of whom later formed the technical core of India's information technology industry and its scientific diaspora abroad.
Reports on researchers and engineers leaving the United Kingdom for higher salaries and better-funded laboratories in North America gave a name to a pattern of skilled emigration later applied to talent flows from dozens of other countries.
The Hart-Celler Act replaced a system favouring immigrants from north-western Europe with one prioritising skills and family ties, opening the door to large-scale skilled migration from India, China, Korea, the Philippines and elsewhere in subsequent decades.
Weak business forecasting of the economic downturn, combined with no-layoff policies for white-collar workers, left firms overstaffed with internally developed managers. The episode exposed the fragility of purely internal pipelines when demand forecasts fail.
Scholarly work from the 1970s onwards connected the development of people to the performance of organisations. This intellectual grounding preceded the naming of talent management by two decades.
The decision, part of the wider reform and opening-up programme, began sending thousands of students to universities in the United States and other Western countries each year, eventually building the pipeline of foreign-trained scientists and engineers that underpinned China's later research expansion.
Recession through the 1980s brought large increases in unemployment as firms restructured and de-emphasised internal development. External recruitment largely replaced the internal development schemes of earlier decades, reshaping how organisations sourced skilled people.
By the late 1990s firms discovered they were attracting and losing experienced employees at the same rate, so buying talent alone could not sustain a pipeline. This drove a search for new ways of retaining and nurturing incumbent employees.
Universities including National Taiwan University and National Yang Ming Chiao Tung University continued to grow programmes created specifically to train chip engineers, responding to a persistent shortage of semiconductor talent even as the industry kept expanding capacity.
Chinese universities continued to award more doctorates in science, technology, engineering and mathematics each year than American institutions, a gap independent projections had expected to widen through the decade as graduate enrolment kept expanding.
Universities strengthened due-diligence checks on international students and research partnerships in fields such as quantum computing, advanced materials and biotechnology, part of a broader effort among Australia and its allies to prevent sensitive expertise transferring to strategic rivals.
With the number of Japanese school leavers continuing to fall, universities and government scholarship schemes leaned further on international students and skilled workers to sustain research laboratories and engineering programmes.
Programmes connecting diaspora researchers with Indian institutions continued to grow, part of a longer-running effort to convert a large scientific diaspora into collaboration, mentorship and, in some cases, permanent return.
Reductions to federal research agency budgets and tighter scrutiny of visas for foreign students and postdoctoral researchers led some scientists to consider positions abroad, feeding recruitment drives in Europe and parts of Asia.
The programme offered several years of funding and relocation support to affected researchers, part of a wider French and European effort to recruit talent unsettled by cuts to federal research funding and tightened visa rules in the United States.
The Choose Europe for Science initiative combined new fellowships with a simplified residence permit for scientists, explicitly pitched to researchers considering leaving the United States amid funding cuts and visa uncertainty there.
Long-term residency incentives aimed at attracting established researchers and their families continued to widen, part of a broader Gulf effort to build resident scientific and engineering talent rather than relying solely on short-term contract staff.
Doctors, engineers and other STEM-trained graduates kept leaving for the UK, Canada and the Gulf in large numbers, prompting debate over retention incentives even as remittances and diaspora links grew in importance to the economy.
The economist and entrepreneur contended that modern societies lack both the ability to identify talented individuals and the frameworks needed to retain and help them flourish. The work extended talent management thinking from the firm to the societal pipeline.
Talent management grew markedly in significance among practitioners and scholars in the decade to 2020. Having originated in research on private companies, the practice spread into public organisations.
The book popularised the idea that competition for skilled individuals was a strategic imperative for organisations. Together with the 1997 research it drove the growth of talent management as a field of practice and scholarship.
The year after McKinsey's study, a paper by Elizabeth G. Chambers and colleagues put the term talent management into written form. It formalised the concept for subsequent research and practice.
McKinsey's 1997 research named and framed talent management as a distinct discipline. The study is credited with launching both practitioner and scholarly interest in the systematic anticipation and supply of skilled people.