Commonwealth Country Profiles
The following country profiles give a brief overview of the state of each Commonwealth country, and an indication of where the major gaps lie in engineering capacity and capability. Each country has a more detailed report attached, which have been compiled with the help of AI, and are currently being verified by country representatives. Please contact the Project Lead if you would like to suggest edits to any of these documents.
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Antigua and Barbuda
Antigua and Barbuda is a small, highly climate‑exposed island state with a modern legal framework for regulating engineers, but by 2025 it still has a very small pool of local professionals, strong dependence on external expertise, and limited institutional and human‑resource capacity to plan, deliver and maintain the climate‑resilient infrastructure the country now prioritises. The key gaps are depth and breadth of specialist skills (coastal, water, transport, power and structural), structured professional development for local engineers, and practical enforcement of the new regulatory regime. Read the full profile here. |
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Australia
Australia has a large, mature engineering ecosystem, but by 2025 it is in a sustained engineering skills crisis: shortages span more than 15 key disciplines and are severe enough that national clean‑energy, housing, infrastructure and defence plans risk delay unless capacity is expanded and better aligned to demand. The core gaps are not institutional but in numbers, discipline mix and experience—too few domestic graduates, patchy early‑career pathways, heavy reliance on migration and under‑utilisation of some engineers, relative to very large project pipelines for net zero, grids, transport, housing and resources. Read the full profile here. |
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Bahamas (The)
The Bahamas has a well‑defined regulatory framework for engineering and active professional bodies, but a relatively small and concentrated engineering corps faces rapidly growing demands from climate‑resilient infrastructure, coastal protection and power‑sector reform, creating significant capacity and specialisation gaps. The main gaps are limited in‑house engineering and project‑preparation capacity in key ministries and the utility, shortages of coastal and energy‑systems specialists, and the need to scale local skills fast enough to deliver a large adaptation and energy‑transition agenda. Read the full profile here. |
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Bangladesh
Bangladesh has a long‑established engineering education tradition and a formal professional registration system linked to the global engineering accords, but by 2025 it still produces relatively few engineers per capita, loses many of its best to migration, and struggles to deploy sufficient experienced, registered professionals into the public sector and infrastructure‑intensive industries amid a slowing, investment‑constrained economy. The main gaps are in absolute numbers, retention, and the practical utilisation of engineers in energy, transport, water, manufacturing and climate‑resilience projects, rather than in the absence of professional institutions or standards. Read the full profile here. |
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Barbados
Barbados has a mature, legally regulated engineering profession and strong institutions to support climate‑resilient infrastructure, but the small size of the domestic engineering corps, concentration in a few disciplines, and rising demands from resilience and energy‑transition projects are stretching available capacity. Key gaps include limited numbers of experienced engineers inside government, specialist shortages in coastal, water, energy and digital infrastructure, and the need to scale project‑preparation and asset‑management skills to match ambitious climate and investment plans. Read the full profile here. |
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Belize
Belize has a small but formally regulated engineering profession, and by 2025 strong post‑pandemic growth, new tourism‑ and transport‑linked infrastructure, and rising climate‑resilience demands are stretching the country’s limited pool of registered engineers and technicians. The main gaps are absolute engineer numbers, the breadth of specialist skills (particularly for resilient coastal, transport, water and energy infrastructure), and limited institutional and training capacity to develop young engineers fast enough to meet infrastructure and resilience plans. Read the full profile here. |
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Botswana
Botswana still has a relatively large engineering workforce by SADC standards and a mature regulatory system, but by 2025 it faces tightening fiscal space, flat or negative growth and a much more demanding infrastructure and diversification agenda, which together expose persistent gaps in engineering specialisation, practical capability and utilisation. The core challenge is no longer just producing more graduates, but aligning skills, experience and incentives with a more complex, lower‑carbon, less diamond‑dependent economy. Read the full profile here. |
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Brunei Darusalam
Brunei Darussalam has a well‑developed regulatory framework for professional engineers and a strong domestic engineering‑education base, but a small overall engineering corps, heavy dependence on oil and gas, and an evolving diversification and low‑carbon agenda are creating gaps in specialist skills (energy transition, digital/industrial systems) and in public‑sector project‑cycle capacity. The main issues are limited numbers of experienced engineers inside government and state‑linked companies for complex non‑O&G projects, and the need to broaden and deepen skills in sectors prioritised under Brunei Vision 2035 (ICT, downstream industry, food and tourism) while maintaining high standards of regulated practice. Read the full profile here. |
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Cameroon
Cameroon has a formal civil‑engineering order and several strong engineering schools, and by 2025 medium‑term growth driven by energy, mining and large infrastructure projects is outpacing the capacity of a still‑limited, unevenly regulated engineering workforce—especially outside civil engineering and in public‑sector project and quality control roles. The main gaps are absolute numbers and experience in key disciplines, incomplete coverage of regulation beyond civil engineering, and constrained institutional capacity to supervise, coordinate and upskill engineers for a rapidly expanding infrastructure and energy agenda. Read the full profile here. |
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Canada
Canada has a large, mature and well‑regulated engineering profession, but by 2025 persistent productivity weakness, a housing and infrastructure push, and clean‑energy commitments are colliding with retirement‑driven shortages and skills mismatches, especially in civil, power, environmental and digital engineering. The main gaps are not institutional but in numbers, experience mix and specialisation: too few engineers relative to planned investment, uneven conversion from graduate to licensed professional, and limited capacity in some public and private organisations to absorb and deploy engineers effectively. Read the full profile here. |
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Cyprus
Cyprus has a well‑established, legally anchored engineering profession and strong institutions, but rapid investment needs in energy transition, climate‑resilient infrastructure and construction are running into tight engineering and construction labour markets and emerging skills gaps, especially in sustainable, digital and energy‑system fields. The main issues are shortages of skilled personnel across construction/engineering, the need to align engineering skills with ambitious climate and digital agendas, and ensuring that public‑sector and private‑sector capacity can deliver a growing pipeline of complex projects efficiently. Read the full profile here. |
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Dominica
Dominica has a small but fully regulated engineering profession and an ambitious programme of tourism, transport and geothermal projects; by 2025 the scale and pace of this investment are stretching a limited pool of registered engineers, especially in civil, energy and climate‑resilient infrastructure roles. The main gaps are absolute numbers and experience, enforcement and reach of registration across all engineering work, and the capacity of public institutions and local firms to plan, deliver and maintain flagship, resilience‑oriented projects. Read the full profile here. |
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Eswatini
Eswatini’s macroeconomic outlook has improved over the last five years, with GDP now projected to grow by around 5 percent in 2025 and potentially above 8 percent under a construction‑led medium‑term scenario, driven by large water, energy, transport and digital‑infrastructure projects. Government strategy documents for 2024/25–2028/29 and the 2023/24–2027/28 National Development Plan emphasise infrastructure, human capital and digital transformation as central to growth and job creation, but also note persistently high unemployment, weak private investment and infrastructure gaps built up over the past decade. Read the full profile here. |
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Fiji
Fiji has a small but critical engineering community in a highly infrastructure‑ and climate‑exposed island economy, and by 2025 is only just putting a comprehensive regulatory system in place, with ageing utilities, constrained public finances, and growing resilience and digital demands exposing gaps in specialist skills, regulation and the graduate‑to‑professional pipeline. The key challenge is building and retaining enough competent, registered engineers- especially in civil, coastal, water, power, transport and ICT fields - to design, deliver and maintain resilient infrastructure under intensifying climate and fiscal pressures. Read the full profile here. |
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Gabon
Gabon has recently created a civil‑engineering order and is scaling up climate‑resilient urban and energy projects, but weak infrastructure governance, underperforming utilities and limited specialist engineering capacity—especially in power, urban drainage and project preparation—leave a sizeable gap between ambitions and domestic capability. The central issues are thin numbers of experienced engineers embedded in key public institutions, fragmented project‑preparation and oversight systems, and emerging needs in climate‑resilient urban planning and green energy that outpace current skills. Read the full profile here. |
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Gambia
The Gambia has a very small, mostly voluntary engineering community and no dedicated statutory engineering council, and by 2025 a strong recovery, large energy and port projects, and a rapid shift from diesel to renewables are creating demands for engineering services far beyond what the local pool of engineers and technicians can supply. The main gaps are absolute numbers, structured regulation and registration, specialist skills for power, ports and resilient public buildings, and limited institutional capacity to train, organise and deploy engineers across government and the private sector. Read the full profile here. |
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Ghana
Ghana has a relatively large and well‑organised engineering community with a statutory regulator, but by 2025 slow industrialisation, a constrained fiscal environment, energy‑sector stresses and ambitious infrastructure plans are exposing persistent shortages and skills mismatches, especially in civil, power, water, telecoms and digital construction. The main gaps lie in enforcement and reach of regulation, discipline‑specific capacity (notably for energy and “Construction 4.0”), and the quality and scale of engineering education and early‑career development relative to national infrastructure and industrial ambitions. Read the full profile here. |
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Grenada
Grenada has a formal engineers’ registration law and an active professional institute, yet by 2025 hurricane reconstruction, a tourism‑ and construction‑led recovery, and an ambitious 100% renewables goal are stretching a numerically small, multi‑disciplinary engineering community, especially in civil, structural, coastal, power and building‑services roles. The main gaps are absolute numbers and senior experience, practical enforcement of registration and standards across all projects, and specialist skills for climate‑resilient, green infrastructure and large public‑investment programmes. Read the full profile here. |
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Guyana
Guyana now has one of the world’s fastest‑growing economies, with a massive oil‑ and infrastructure‑driven investment boom and ambitious climate‑resilience plans, but still lacks a modern, fully implemented engineering regulatory system and enough experienced engineers to plan, deliver and maintain the required transport, energy, water and coastal infrastructure. The key gaps are professional regulation (still being legislated), public‑sector and contractor engineering capacity, and specialist skills for oil and gas, power systems and climate‑resilient infrastructure, relative to the scale and speed of planned investment. Read the full profile here. |
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India
India now has the world’s largest engineering education system and a huge installed base of engineering graduates, but by 2025 only a fraction work in roles that truly use their skills, placement rates in many core branches are modest, and the country is only just moving towards a formal licensing regime—leaving major gaps in quality, utilisation and professional regulation relative to its high‑growth, infrastructure‑intensive economy. The central challenge is aligning vast numerical capacity with employability, sectoral demand and a professional framework that can assure competence and public safety, especially as infrastructure and technology investment accelerates. Read the full profile here. |
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Jamaica
Jamaica has a formal engineering regulatory system and an active professional institution, and by 2025 enjoys strong macro‑stability with record‑low unemployment, but recurring hurricane damage, infrastructure gaps and an ambitious climate‑resilience agenda expose significant shortages of registered, experienced engineers—especially for resilient infrastructure, utilities and local government—relative to need. The main gaps are in numbers, enforcement of registration and building standards, specialist climate‑resilience skills, and the ability of public bodies and contractors to absorb and develop young engineers systematically. Read the full profile here. |
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Kenya
Kenya now has a large, rapidly growing engineering pipeline and an assertive regulator, but by 2025 nearly half of trained engineers are under‑employed or unemployed, and there are acute shortages of experienced, licensed engineers in the public sector, energy, transport, water and manufacturing relative to Kenya’s infrastructure and industrial ambitions. The main gap is not raw numbers but the balance between graduate and professional engineers, the quality and relevance of training, and the structures that turn graduates into competent, licensed practitioners who actually lead projects. Read the full profile here. |
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Kiribati
Kiribati has made notable progress in planning and governing climate‑resilient infrastructure, but a very small and scattered engineering workforce, heavy reliance on foreign consultants and thin specialist capacity mean that the current and projected investment pipeline far exceeds domestic engineering capacity. Core gaps include senior civil/coastal and utility engineers in government, limited skills for standardised resilient designs (especially seawalls and water systems), and constrained project‑delivery and asset‑management capability across outer islands. Read the full profile here. |
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Lesotho
Lesotho’s core engineering capacity in 2025 shows a relatively large stock of qualified Basotho engineers and technicians, but weak absorption, training and utilisation against an economy now driven by major water‑infrastructure projects and modest, volatile growth. The updated context mainly amplifies the risk that engineering skills are under‑used at the very time that LHWP Phase II and other schemes demand stronger local capability. Read the full profile here. |
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Malawi
Malawi has strengthened its formal regulation of engineering since the original chapter, but by 2025 the country is in a deeper macroeconomic crisis, with infrastructure needs and project pipelines still far outstripping both the number and the practical readiness of engineers and technicians. The core gap is the ability to train, retain and productively employ enough competent practitioners, especially in power, water, transport and agriculture, within a severely constrained fiscal and growth environment. Read the full profile here. |
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Malaysia
Malaysia has a large, formally regulated engineering profession and a booming construction and energy pipeline, but by 2025 it faces a structural gap between a very large pool of graduates and a relatively small cadre of fully professional, practice‑ready engineers, alongside shortages in key areas for infrastructure, digital and energy transition. The central gaps are conversion from graduate to professional engineer, specialist skills for clean energy, grids and advanced infrastructure, and the capacity of public agencies and firms to absorb and develop engineers at the pace required. Read the full profile here. |
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Maldives
Maldives has a growing, regulation‑backed construction and engineering regime and an active civil‑engineering association, but a tourism‑ and infrastructure‑led growth model, extensive coastal‑protection works and climate‑resilient investment needs are outpacing a numerically small and unevenly specialised engineering workforce. The main gaps are limited technical staff in key ministries, shortages of experienced structural, coastal and power‑systems engineers, and still‑developing mechanisms to align licensing, standards and skills with the scale of climate‑resilient infrastructure required. Read the full profile here. |
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Malta
Malta has a small but tightly regulated engineering profession, and by 2025 rapid economic and population growth, infrastructure bottlenecks and the energy‑transition agenda are putting more pressure on a finite pool of warranted engineers than current numbers, specialisations and institutional capacity can comfortably meet. The main gaps are absolute numbers, specialist skills for energy, transport and environmental infrastructure, and limited structured pathways to grow and retain local capability in a system that relies heavily on a single university and imported labour. Read the full profile here. |
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Mauritius
Mauritius now has a relatively sophisticated engineering system with near‑universal basic services and strong institutions, but by 2025 the country faces tighter fiscal space, labour shortages and tougher climate and productivity demands, which expose specific gaps in engineering specialisation, accreditation and utilisation rather than in raw numbers. Read the full profile here. |
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Mozambique
Mozambique has a relatively large engineering workforce and an established professional order, but by 2025 slow, fragile growth, very high debt and stop‑start LNG and infrastructure investment mean that many graduates struggle to become experienced practitioners, while specialist capacity for gas, power, water, rail and climate‑resilient infrastructure remains thin. The key gap is turning a sizeable graduate pipeline into competent, registered engineers able to lead complex gas and infrastructure projects, rather than relying predominantly on foreign expertise. Read the full profile here. |
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Namibia
Namibia’s engineering system in 2025 sits at the centre of an ambitious industrial and green‑hydrogen agenda, but the country still has too few experienced engineers in critical public and project roles, a heavy dependence on foreign professionals and an embattled regulator, all against a backdrop of only moderate growth. The core gap is not just numbers, but the ability to train, retain and empower enough competent Namibian engineers to lead complex mining, infrastructure and green‑hydrogen projects over the next decade. Read the full profile here. |
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Nauru
Nauru has increasingly sophisticated infrastructure plans and strong donor support for major works, but an extremely small domestic engineering and technical workforce, fragile utility systems and chronic maintenance weaknesses create large gaps between planned investments and in‑country engineering capacity. The main gaps are in utility and asset‑management engineering, project preparation and supervision capability in government, and specialist skills for climate‑resilient coastal, energy and urban infrastructure, leading to heavy dependence on external consultants and regional partners. Read the full profile here. |
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New Zealand
New Zealand has strong engineering institutions and internationally recognised standards. However a cycle of volatile government investment in infrastructure, combined with inflation and interest rate variations has seen demand for engineering services in infrastructure, building & construction and manufacturing vary significantly. This has resulted in confusing market signals as there is an underlying structural engineering skills shortage—especially in civil, water and climate‑resilience roles—relative to a large infrastructure deficit and the technical demands of decarbonisation and adaptation. The key issue is not regulation but numbers and experience: the country does not train or retain enough engineers each year, relies heavily on migrants to deal with market surges, and risks falling behind on critical upgrades as senior engineers retire and project pipelines grow. Read the full profile here. |
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Nigeria
Nigeria has a long‑established national regulator and a very large engineering graduate pipeline, yet by 2025 infrastructure backlogs, chronic power deficits and an ambitious Energy Transition Plan are confronting a sector where too few engineers are properly registered, too many graduates lack practical skills, and specialised capacity in critical areas (power, renewables, digital) is thin relative to need. The central gaps are skills and deployment rather than institutions: an acute mismatch between theory‑heavy education and industry needs, under‑regulation of practice in some public and private bodies, and limited capacity to deliver the billion investment implied by Nigeria’s net‑zero ambitions and infrastructure plans. Read the full profile here. |
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Pakistan
Pakistan has a large, mature engineering system under the Pakistan Engineering Council (PEC), with Washington‑Accord–aligned accreditation and a big graduate pipeline, but by 2025 slow growth, fiscal stress and uneven industrial demand mean many young engineers struggle to gain quality experience while public agencies and key sectors still lack enough seasoned professionals to drive infrastructure, energy transition and climate‑resilient development. The main gaps are not the absence of institutions, but relatively low engineer‑per‑population ratios, uneven graduate quality, weak structured training and under‑utilisation of engineers in the state and high‑productivity sectors. Read the full profile here. |
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Papua New Guinea
Papua New Guinea has a long‑standing professional engineering institution and a substantial pipeline of resource, transport and energy projects, but implementation, maintenance and climate‑resilient upgrading are constrained by limited numbers of experienced engineers in key government agencies and uneven technical capacity across the country. Core gaps include climate‑risk‑informed transport and utility engineering, asset‑management and maintenance engineering, and the depth of senior professional capacity outside major centres, leading to strong reliance on external consultants and donor‑funded technical assistance. Read the full profile here. |
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Rwanda
Rwanda has a relatively small but tightly regulated engineering profession in a fast‑growing, infrastructure‑driven economy, and by 2025 large projects like the New Kigali International Airport, urban development and climate‑resilience programmes are stretching the available pool of registered engineers, especially in transport, aviation, water, energy and systems engineering. The key gaps are numbers and experience at senior level, specialist skills for complex infrastructure and climate‑resilient design, and the capacity of public bodies and firms to absorb, mentor and retain engineers at the pace required by the Second National Strategy for Transformation (NST2). Read the full profile here. |
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Samoa
Samoa has a very small but formally regulated engineering community in a highly climate‑vulnerable island economy; by 2025, tourism‑led recovery, donor‑financed infrastructure and resilience projects are increasing demand for engineering services far beyond what the domestic pool of registered engineers and technicians can supply, especially in transport, coastal and water sectors. The key gaps are absolute numbers, depth of experience, and specialist skills for climate‑resilient infrastructure, alongside limited institutional capacity to provide structured training and to embed engineering leadership across government and local contractors. Read the full profile here. |
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Seychelles
Seychelles has a relatively high engineering intensity for its small population and strong basic infrastructure, but by 2025 it still lacks enough locally registered engineers in key disciplines, relies heavily on foreign expertise, and is only now putting a formal construction‑professions regulator in place, just as climate‑resilient and renewable‑energy investments scale up. The main gaps are depth of local specialist skills (especially coastal, water, energy and marine engineering), structured graduate training, and the institutional capacity of the new council to regulate, accredit and support the profession. Read the full profile here. |
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Sierra Leone
Sierra Leone has recently put in place a modern statutory regulator and has an active professional institution, but by 2025 a recovering, mining‑ and infrastructure‑driven economy, high climate vulnerability and tight public finances are exposing a small and still not fully organised engineering community that cannot yet fully meet national needs for infrastructure, energy and resilient development. The main gaps are engineer numbers and experience, the practical rollout of the new regulatory system, and limited public‑sector and private‑sector capacity to train, retain and effectively deploy engineers across the country. Read the full profile here. |
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Singapore
Singapore has a comparatively large, highly regulated professional‑engineering corps and deep technical institutions, but by 2025 it faces persistent shortages of experienced engineers and digitally skilled professionals relative to demand from advanced manufacturing, infrastructure renewal and the green/digital transitions. The main gaps are numerical and skills‑based—especially in systems, power, digital and advanced manufacturing engineering—rather than institutional, and are compounded by heavy reliance on foreign talent and an ageing professional cohort. Read the full profile here. |
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Solomon Islands
Solomon Islands has emerging professional structures and a very large pipeline of climate‑resilient infrastructure, but a tiny domestic engineering base, weak public‑sector project and maintenance systems, and a construction industry that struggles to deliver mid‑ and large‑scale projects without external support. Core gaps include limited engineering and project‑management capacity in government, thin specialist skills in climate‑resilient transport/urban infrastructure and power systems, and systemic weaknesses in building‑code enforcement and local construction capability. Read the full profile here. |
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South Africa
South Africa still has the region’s largest and most institutionalised engineering system, but by 2025 weak growth, infrastructure backlogs, state‑owned enterprise failures and the energy/logistics crisis expose deep gaps in the utilisation, distribution and practical competence of engineers relative to the scale and complexity of the country’s infrastructure and just‑transition agenda. The central challenge is not only producing more graduates, but ensuring enough experienced, well‑deployed engineers in energy, water, transport, housing and manufacturing, and strengthening institutions so that engineering expertise actually drives project selection, design and delivery. Read the full profile here. |
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Sri Lanka
Sri Lanka has long‑standing engineering institutions and a statutory council, and by 2025 economic stabilisation plus a renewed public‑investment and climate‑adaptation push are increasing demand for engineering services faster than the system is producing and retaining experienced, regulated professionals, especially in the public sector and outside Colombo. The key gaps are in numbers and deployment of competent, chartered/registered engineers into infrastructure and climate‑resilience roles, uneven early‑career development, and the effective implementation of the Engineering Council regime across all practitioners. Read the full profile here. |
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St Kitts & Nevis
St Kitts and Nevis has an active professional‑engineering association and a rapidly expanding pipeline of climate‑resilient infrastructure and renewable‑energy projects, but the very small size of the engineering community, thin in‑house capacity in government, and emerging demands in geothermal and coastal infrastructure create marked capacity and capability gaps. The key gaps are limited project‑preparation and implementation skills within ministries, scarcity of specialist power‑systems and coastal engineers, and insufficient human resources to roll out the adaptation measures already identified in national climate plans. Read the full profile here. |
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St Lucia
Saint Lucia has a mature legal framework for regulating engineers and an active professional association, alongside an ambitious climate‑resilience and energy‑transition agenda, but a small domestic engineering corps, limited specialist capacity, and constrained public‑sector implementation systems mean that current and planned infrastructure and resilience investments push the system close to its limits. The main gaps are in public‑sector project‑cycle and asset‑management capacity, specialist skills for climate‑resilient infrastructure (although many engineers are upskilling in this area through further studies); the emerging discipline of geothermal engineering; and full coverage/enforcement of registration and standards across all practising engineers and sectors. Read the full profile here. |
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St Vincent & the Grenadines
St Vincent and the Grenadines has building codes, standards institutions and active climate‑resilience programmes, but a very small and dispersed engineering workforce, limited technical staffing in government, and growing demands from geothermal, coastal‑protection and land‑development projects create significant capacity and capability gaps. The main gaps are in public‑sector project preparation and supervision, specialist coastal/energy/land‑development skills, and the ability to implement the country’s own climate and resilience plans at scale. Read the full profile here. |
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Tanzania
Tanzania now has a very large and fast‑growing engineering graduate pipeline but still faces major shortages of experienced, well‑supervised practitioners in the public and productive sectors relative to its industrialisation, power, water and urbanisation ambitions. The core gap is converting high volumes of graduates into competent, registered engineers who can plan, deliver and maintain complex infrastructure at scale. Read the full profile here. |
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Togo
Togo has recently created a formal national engineering order and is investing in logistics, energy and urban infrastructure, but the small number of registered engineers, limited project‑preparation capacity in ministries and weak local‑government technical capacity create significant gaps between investment needs and in‑country engineering capability. Core gaps include an undersized and unevenly distributed engineering corps (especially outside Lomé), limited skills and systems for project preparation and infrastructure maintenance, and emerging needs in energy, logistics and digital infrastructure that outpace available specialist expertise. Read the full profile here. |
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Tonga
Tonga has an increasingly sophisticated infrastructure‑planning and climate‑resilience framework, but only a handful of professionally trained engineers and inspectors, under‑developed construction and maintenance capacity, and growing climate‑resilient infrastructure needs that far exceed domestic engineering resources. The main gaps are extremely limited engineering and oversight staff in government, weak local construction/maintenance capability, and scarce specialists in coastal, climate‑resilient transport and energy systems. Read the full profile here. |
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Trinidad & Tobago
Trinidad and Tobago has a long‑standing, formal licensing system and a substantial engineering community anchored in hydrocarbons, but by 2025 a slow, uneven economic recovery, declining gas production and the need to decarbonise and diversify expose gaps between existing skills and the engineering capacity required for grid upgrades, renewables, industrial transformation and resilient infrastructure. The main gaps are in specialist skills for the energy transition and industrial diversification, public‑sector and regulatory engineering capacity, and early‑career development and registration coverage across all practising engineers. Read the full profile here. |
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Tuvalu
Tuvalu has no standalone engineering council and only a handful of engineers embedded in the public works ministry and development projects, while a large, climate‑driven infrastructure programme and 100%‑renewables ambitions are creating demands far beyond domestic technical capacity. The core gaps are tiny numbers, limited senior experience and specialisation, and heavy reliance on external engineers for design, supervision and maintenance of critical, climate‑resilient infrastructure. Read the full profile here. |
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Uganda
Uganda has long‑standing engineering institutions and a statutory registration board, and is entering a phase of oil‑driven growth and renewed infrastructure finance, but by 2025 the scale of planned roads, energy and oil projects far exceeds a limited pool of registered engineers, site professionals and skilled technicians—especially outside Kampala. The main gaps are numbers and practical experience, outdated legislation in transition, and weak capacity across public agencies and contractors to develop and deploy engineers and technicians for modern, climate‑compatible infrastructure and industrialisation. Read the full profile here. |
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United Kingdom
The UK has one of the world’s largest and most sophisticated engineering ecosystems, with around a fifth of the workforce in engineering and technology roles, but by 2025 it faces persistent skills shortages, an ageing professional workforce, slow productivity growth and major demands from net zero and infrastructure that outstrip the supply of suitably skilled, experienced engineers. The central gaps are not institutional but lie in technical skills (especially in critical technologies and green infrastructure), diversity, regional distribution and the conversion of a large potential talent pool into professionally registered, practice‑ready engineers. Read the full profile here. |
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Vanuatu
Vanuatu has an emerging engineers’ association and an infrastructure strategy that recognises systemic capacity weaknesses, but by 2025 post‑earthquake reconstruction, climate‑resilient infrastructure needs and a dispersed island geography are far beyond the capacity of a very small, thinly spread engineering workforce. The central gaps are numbers and senior experience, limited regulatory and enforcement capacity for building standards, and dependence on external expertise for design, supervision and advanced climate‑resilience and energy work. Read the full profile here. |
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Zambia
Zambia has a comparatively well‑developed engineering profession and regulatory system, and a positive 2025 growth outlook, but still faces shortages of experienced engineers in key sectors and a sizeable gap between graduate numbers and the skills needed to drive mining‑led growth, infrastructure expansion and diversification. The main issue is aligning education quality, structured training and regulation with an economy targeting 5–6% growth, more mining investment and major infrastructure upgrades. Read the full profile here. |
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Zimbabwe
Zimbabwe has a large and growing pool of engineering graduates and a consolidated regulatory framework, but by 2025 it still offers too few funded posts, projects and structured training pathways to convert these graduates into experienced professionals able to deliver the infrastructure, energy and industrial targets in NDS1 and Vision 2030. The core gap is not the number of graduates, but their utilisation, quality, and the depth of experience in public infrastructure, power, water and mining, within an economy that remains volatile despite a sharp 2025 rebound. Read the full profile here. |