Ambreen Ilyas
School of Biological Sciences, University of the Punjab, Lahore, Pakistan ![]()
Correspondence to: Ambreen Ilyas, ambreen2.phd.sbs@pu.edu.pk

Additional information
- Ethical approval: N/a
- Consent: N/a
- Funding: No industry funding
- Conflicts of interest: N/a
- Author contribution: Ambreen Ilyas – Conceptualization, Writing – original draft, review and editing.
- Guarantor: Ambreen Ilyas
- Provenance and peer-review: Unsolicited and externally peer-reviewed
- Data availability statement: All data used in this review are derived from published sources cited in the manuscript and supplementary files.
Keywords: Multidimensional shock–response–recovery model, Pandemic-driven socioeconomic inequality, Digital divide in remote education, Tele-health proliferation, Transient emission reductions.
Peer Review
Received: 13 December 2025
Last revised: 2 January 2026
Accepted: 2 January 2026
Version accepted: 4
Published: 13 February 2026
Plain Language Summary Infographic

Abstract
The COVID-19 pandemic, caused by the novel coronavirus SARS-CoV-2, emerged at the end of December 2019, when clusters of unexplained pneumonia were reported in Wuhan, China. This initial detection marked the beginning of a global crisis that would reshape societies, economies, and health systems worldwide. As the virus quickly transcended regional boundaries, countries introduced strict public health measures, most notably nationwide lockdowns, social distancing mandates, and travel restrictions to slow transmission. Although these interventions were essential for containment, they produced wide-ranging consequences that extended far beyond the immediate health threat. Healthcare infrastructures across many nations were overwhelmed as hospitals prioritized COVID-19 cases, reducing access to routine medical services and heightening the burden on frontline staff.
Economically, the pandemic disrupted global supply chains, reduced industrial productivity, and led to large-scale unemployment, disproportionately affecting vulnerable populations and exacerbating socioeconomic inequalities. Education systems transitioned abruptly to online learning, exposing deep digital divides and contributing to significant learning loss among students with limited technological access. At the household level, prolonged confinement intensified mental health challenges, increased domestic violence, and placed additional stress on caregivers, especially women. Conversely, reductions in industrial activity and global mobility temporarily improved air quality in many urban centers, demonstrating how human behavior directly influences environmental health.
Social interactions shifted toward virtual platforms, accelerating digital transformation across work, commerce, and communication. This review synthesizes global evidence to examine how the pandemic-from the events of December 2019, triggered profound and interconnected impacts across health, economy, society, education, and the environment. Understanding these broad effects is essential for developing resilient systems capable of responding to future public health emergencies and minimizing similar worldwide disruptions. Given its cross-sectoral scope and policy orientation, this manuscript is positioned within the fields of Public Health, Global Health, and Health Policy.
Introduction
The emergence of COVID-19 in December 2019 marked the onset of a global disruption unparalleled in modern history. Identified initially as a cluster of atypical pneumonia cases in Wuhan, China, the novel SARS-CoV-2 virus rapidly leveraged global connectivity to spread across continents, transforming a localized outbreak into a worldwide crisis within weeks.1–3 The pandemic exposed the fragility of healthcare systems, revealing gaps in preparedness, surveillance capacity, and emergency response even in technologically advanced nations.4,5 Hospitals struggled with overwhelming patient loads, shortages of critical supplies, and the suspension of routine services, underscoring the profound systemic strain imposed by the outbreak.6,7 Unlike earlier health emergencies such as H1N1, Ebola, Zika, or SARS, COVID-19 precipitated a synchronized global response: nationwide lockdowns, border closures, and wide-scale restrictions on population mobility. While these measures helped slow viral transmission, they simultaneously generated far-reaching consequences across economic structures, food systems, education, mental health, digital access, and environmental quality. The pandemic also exposed longstanding inequities, disproportionately affecting low-income groups, informal workers, and marginalized populations.
At the household level, sudden changes in daily life – including school closures, remote work arrangements, restricted mobility, and fear of infection contributed to rising mental health challenges, increased domestic violence, and widening gender disparities. Conversely, reduced industrial activity and transportation produced temporary improvements in air quality, highlighting the intricate connections between human behavior and environmental conditions. Education systems experienced unprecedented disruption as more than a billion learners transitioned to remote platforms, intensifying digital divides and affecting academic continuity and wellbeing.8 Similarly, the global economy experienced abrupt contractions driven by halted industrial production, disrupted supply chains, and suppressed trade and mobility.9–11
These societal shifts were accompanied by equally rapid transformations in digital innovation. Telehealth, remote work platforms, and digital public-health tools expanded at an unprecedented pace, reshaping communication, healthcare delivery, and workplace structures.12,13 COVID-19 was therefore not simply a viral outbreak but a global stress test that exposed structural vulnerabilities and redefined resilience across multiple interconnected systems. This review synthesizes the multifaceted global effects of the pandemic to provide an integrated understanding of how an event that began in late 2019 reshaped health systems, socioeconomic stability, education, environmental conditions, and digital transformation worldwide. Given the scope and complexity of these interconnected impacts, a scoping/narrative review design was selected to systematically map the breadth of available evidence, identify cross-domain linkages, and integrate diverse datasets and review findings. This approach is appropriate because it enables broad synthesis across multiple disciplines, accommodates heterogeneous study designs, and supports the development of an integrative conceptual model of pandemic effects. The aim of this review is therefore to provide a comprehensive, structured, and cross-sectoral synthesis of the global consequences of COVID-19.
To maintain conceptual focus while preserving global relevance, this review prioritizes domains with the strongest and most consistent evidence base – health systems, socioeconomics, education, environmental change, and digital transformation. These domains are deeply interlinked: economic contractions intensified food insecurity, which exacerbated psychosocial stress; educational disruptions magnified digital inequities; and the rapid shift toward digital systems improved continuity while simultaneously widening mental health and access disparities. This interconnectedness underscores the need for an analytic framework capable of capturing multidimensional pathways and system-level feedbacks. While prior COVID-19 reviews have typically examined single domains or limited cross-sector interactions, this scoping review contributes added value through a systems-level synthesis spanning health, socioeconomic, educational, environmental, and digital domains. Its novelty lies in the operationalization of the Multidimensional Shock–Response–Recovery (MSRR) framework, explicit HIC/LMIC stratification across domains, and SDG-aligned policy mapping that translates evidence into actionable recovery and preparedness pathways (Table 1).
| Table 1: Comparative positioning of this review relative to prior multidomain COVID-19 reviews. | ||
| Feature | Prior Multidomain COVID-19 Reviews | This Scoping Review |
| Review type | Narrative or limited systematic reviews | PRISMA-ScR–compliant scoping review |
| Timeframe covered | Mostly 2020–2022 | December 2019–October 2024 |
| Domains included | Typically health + one additional domain | Health, socioeconomic, education, environment, digital, governance |
| Analytical framework | Descriptive or domain-specific | MSRR framework |
| Income stratification | Rare or implicit | Explicit HIC vs. LMIC comparison across domains |
| Geographic synthesis | Regionally fragmented | Global synthesis with cross-regional comparison |
| Quality appraisal | Often absent or implicit | Formal AMSTAR-2 and JBI appraisal |
| Use of appraisal | Not specified | Used to contextualize evidence strength |
| Policy integration | General recommendations | SDG-aligned, domain-specific policy pathways |
| Preparedness relevance | Retrospective focus | Forward-looking recovery and resilience planning |
| Added value | Broad overview | Systems-level integration + policy translation |
Conceptual Framework: The Multidimensional Shock–Response–Recovery Model
The MSRR Model was developed to provide an integrative analytical framework for understanding how the COVID-19 pandemic generated cascading effects across interconnected systems. The model synthesizes cross-domain interactions spanning health, socioeconomic structures, education, the environment, and digital transformation.
Shock Phase: The pandemic triggered an initial systemic shock characterized by health system overload, rapid transmission, and emergency public health measures. These shocks propagated outward into other sectors, initiating disruptions in labor markets, global supply chains, education systems, and environmental conditions.
Response Phase: Governmental, institutional, and household-level responses – including lockdowns, fiscal stimulus, remote work transitions, telemedicine adoption, and school closures – mediated the spread of impacts. These responses generated distinct causal pathways across domains, such as: health system strain → labor market disruption → income loss → food insecurity → worsening mental health outcomes. These interconnected pathways illustrate how pandemic effects amplified vulnerabilities, particularly in low-resource settings.
Recovery Phase: Recovery trajectories varied by region and income level, reflecting differences in health capacity, digital infrastructure, governance, and socioeconomic resilience. Quantitative summary measures, where available, support this multidimensional analysis – for example, pooled global estimates of anxiety and depression prevalence, region-specific reductions in NO2 emissions, and global GDP contraction ranges. The MSRR model highlights reinforcing and mitigating feedback loops that shaped both immediate and long-term outcomes. These include:
- resilience-building mechanisms within communities and health systems;
- widening inequalities between high-income and low- and middle-income countries (HICs vs. LMICs);
- feedback loops linking economic austerity, digital divides, and environmental rebound effects.
By integrating these cross-sectoral dynamics, the MSRR framework provides a coherent structure for interpreting the pandemic’s complex global impacts and strengthens the analytical depth of this review.
PRISMA-ScR Compliance and Study Identification
This scoping review was conducted and reported in accordance with the PRISMA-ScR (Preferred Reporting Items for Systematic Reviews and Meta-Analyses extension for Scoping Reviews) guidelines. A total of 4,152 records were identified through database searching (PubMed/MEDLINE, Scopus, Web of Science, Embase, EconLit, and the WHO COVID-19 Database). After removal of 834 duplicates, 3,318 records were screened by title and abstract. Of these, 2,092 records were excluded for irrelevance to the review scope. 1,226 full-text articles were assessed for eligibility, resulting in the exclusion of 987 studies due to out-of-scope focus, insufficient empirical content, commentary-only design, or language restrictions. Ultimately, 239 studies met all inclusion criteria and were included in the final synthesis (Figure 1). Google Scholar was used exclusively for citation chaining and reference verification, not as a primary database, to identify additional relevant studies cited within eligible articles and to ensure completeness of key global reports. A PRISMA-ScR flow diagram has been created and inserted as Figure 1.

Flow diagram illustrating identification, screening, eligibility assessment, and inclusion of studies in accordance with PRISMA-ScR guidelines. Database searches identified 4,152 records; after removal of 834 duplicates, 3,318 records were screened, 1,226 full texts were assessed for eligibility, and 239 studies were included in the final synthesis. A completed PRISMA-ScR checklist is provided as Supplementary File S3 to support reporting transparency and reproducibility. All included studies and extracted quantitative indicators are systematically documented in a supplementary evidence matrix (Supplementary File S4), which provides study-level stratification by domain, region, income classification, design, appraisal tier, and reported outcome ranges.
Emergence and Global Spread of COVID-19
COVID-19 originated in late December 2019 after clusters of atypical pneumonia were reported in Wuhan, China.14 By early January 2020, SARS-CoV-2 was identified as the causative pathogen,15 and global alerts followed rapidly. The virus spread across continents through air travel, resulting in the WHO declaring a Public Health Emergency of International Concern on 30 January 2020 and a global pandemic on 11 March 2020.16 By the end of 2020, more than 83 million confirmed cases and 1.8 million deaths had been recorded worldwide (Figure 2), illustrating the unprecedented scale and velocity of transmission.17

Healthcare System Impacts
Healthcare systems globally experienced overwhelming strain. ICU occupancy regularly exceeded 90% capacity in regions such as Northern Italy, New York, and parts of India during peak waves.18 Shortages of ventilators, oxygen, and personal protective equipment led to higher nosocomial transmission among healthcare workers.18 Elective surgeries decreased by an estimated 28 million procedures in 2020 alone.19 Routine immunization programs were disrupted in more than 70 countries, putting an estimated 80 million children at risk for vaccinepreventable diseases (Table 2).20
| Table 2: Indicators of global healthcare system strain during covid-19. | ||||
| Indicator | Pre-pandemic Baseline (2018–2019) | During Peak Pandemic (2020–2021) | % Change/Impact | Notes |
| Hospital bed occupancy rate | 65%–75% | 85%–95% | ↑ 20%–30% | Many hospitals exceeded surge capacity; elective procedures postponed. |
| ICU bed utilization | 60%–70% | 90%–100% | ↑ 30%–40% | Critical care units overwhelmed during major waves. |
| Ventilator demand | Stable (baseline demand) | 2–5× increase | ↑ 200%–400% | Severe shortages reported globally, especially early 2020. |
| Healthcare worker infection rates | <1% | 10%–20% | ↑ 10–20× | High exposure + PPE shortages increased infection risk. |
| PPE (masks, gowns, gloves) availability | Stable, adequate | Severe shortages | ↓ 40%–80% | Global supply chain disruption. |
| Average patient wait time (ER/admissions) | 1–3 hours | 6–12+ hours | ↑ 200%–300% | Overcrowding due to surge in critical cases. |
| Ambulance response time | 8–12 minutes | 15–25 minutes | ↑ 60%–120% | High call volumes + staff shortages. |
| Non-COVID treatment delays | Minimal | Significant delays | ↑ 50%–70% | Cancer screenings, surgeries, and follow-ups postponed. |
| Healthcare workforce burnout rates | 20%–30% | 50%–70% | ↑ 30%–40% | Increased workload, stress, and long shifts. |
| Telemedicine utilization | 5%–10% of visits | 40%–60% of visits | ↑ 400%–600% | Rapid digitization to compensate for restrictions. |
Global Economic Consequences
The pandemic triggered the sharpest global economic contraction since the Great Depression. The world economy shrank by 3.5% in 2020,21 and global trade fell by 9%.21 Tourism-dependent economies experienced GDP declines up to 15%–20%.21 Unemployment surged globally, with an estimated 255 million fulltime jobs lost, equivalent to $3.7 trillion in income.22 Oil prices fell to negative territory in April 2020 (−$37 per barrel), highlighting extreme market volatility (Figure 3).22 While the global recession was universal, recovery trajectories diverged sharply, influenced by fiscal capacity, digital infrastructure, and pre-existing economic vulnerabilities. High-income economies rebounded quickly due to aggressive stimulus packages, whereas developing regions experienced prolonged stagnation.

| Table 3: Economic impact summary. | ||||
| Economic Indicator | Pre-pandemic (2018–2019) | During Pandemic (2020–2021) | Impact/% Change | Notes |
| Global GDP growth | +2.8%–+3.2% | −3.1% (2020), +6.0% (2021 rebound) | ↑ 6%–7% points | Largest global contraction since WWII. |
| Unemployment rate (global) | 5%–6% | 7%–8% | ↓ 30%–40% | Millions lost jobs, especially in services/travel sectors. |
| International trade volume | Stable 1%–2% annual growth | −9% (2020) | ↓ 9% | Supply chain disruptions + border closures. |
| Tourism revenue | $1.5 trillion | $0.4 trillion | ↓ 65%–75% | Severe collapse in international mobility. |
| Global poverty rate | 8.7% | 9.5%–10% | ↑ 80–100 million people | First rise in global poverty in 20+ years. |
| Food price index (FAO) | 95–100 | 113–125 | ↑ 15%–20% | Supply shocks + logistics bottlenecks. |
| Stock market volatility (VIX index) | 12–20 | Peaks of 60–80 | ↑ 3–4× | Sharp volatility during early pandemic uncertainty. |
| Government stimulus spending | Normal annual budgets | $14–16 trillion (cumulative) | Drastic increase | Largest global fiscal response in history. |
| Small business closures | Baseline turnover | 20%–30% temporary/permanent closures | ↑ sharply | Retail, hospitality, and transport hardest hit. |
| Oil prices (brent) | $60–70/barrel | $20–40 (2020), rebound 2021 | ↓ ~50% then ↑ | Demand collapse During lockdowns. |
| Table 4: Summary of key cross-domain COVID-19 impacts by income setting. | ||||
| Domain | Indicator | HIC Range | LMIC Range | Key Sources |
| Mental Health | Anxiety prevalence | +25%–30% | +35%–50% | WHO, Santomauro et al. |
| Education | Learning loss | 0.3–0.5 SD | 0.6–1.2 SD | UNESCO, World Bank |
| Economy | Employment loss | −4%–6% | −8%–12% | ILO, IMF |
| Digital | Telehealth adoption | +40%–60% | +10%–25% | OECD |
Food Security and Agriculture
Global food systems faced severe disruptions. Border closures and mobility restrictions interfered with input supply chains, labor migration, and market access. Food prices rose by an average 6.5% globally, with regions such as SubSaharan Africa experiencing spikes up to 12%–15%.23 The number of people facing acute food insecurity increased from 135 million (2019) to 265 million (2020) (Figure 4).23

Education and Learning
School closures impacted 1.6 billion students, representing 91% of the world’s enrolled learners.20 Remote learning widened pre-existing digital divides: only 18% of learners in lowincome countries had access to reliable online platforms, compared to 87% in highincome regions.20 Learning losses corresponded to a projected 0.6 years of schooling lost globally (Table 5).20 Learning loss was disproportionately severe in low-income regions, where limited digital infrastructure amplified pre-existing educational inequalities, suggesting long-term consequences for human capital formation.
| Table 5: Educational disruption indicators. | ||||
| Region | Duration of School Closures (Months) | Number of Students Affected | Access to Digital/Online Learning (%) | Key Challenges Reported |
| High-income countries | 3–5 months | ~250 million | 80%–90% | Digital fatigue, reduced socialization, unequal home learning environments |
| Middle-income countries | 5–9 months | ~700 million | 40%–60% | Limited internet bandwidth, device shortages, teacher training gaps |
| Low-income countries | 8–13 months | ~650 million | 10%–20% | Severe digital divide, electricity instability, limited remote learning systems |
| Sub-Saharan Africa | 9–12 months | ~170 million | <10% | Almost no online access; reliance on radio/TV schooling |
| South Asia | 7–10 months | ~430 million | 25%–40% | Shared household devices, rural–urban disparities, girls’ dropout risks |
| Latin America | 6–10 months | ~120 million | 40%–50% | Connectivity gaps, socio-economic inequalities, reduced learning engagement |
| Global Average | ~7 months | 1.6 billion learners | ~50% average | Largest learning disruption in modern history; significant long-term learning loss |
Tourism, Hospitality, Culture, and Sports
International tourist arrivals decreased by 74% in 2020, resulting in a revenue loss of $1.3 trillion.21 The airline industry recorded a 60% decline in passenger traffic.21 Hospitality-related unemployment surged globally, with hotels operating at occupancy levels below 30%.22 Major sporting events the Tokyo Olympics and UEFA competitions were postponed or held without spectators (Figure 5).22

Gender Relations and Domestic Violence
Women experienced disproportionate socioeconomic burdens. Domestic violence incidents increased by 20%–30% globally during lockdowns.24 Women’s employment, particularly in informal and service sectors, declined by 5%, compared with 3.9% for men.24 Gender gaps in unpaid care work widened, with women providing 3.2 additional hours of home labor daily.24
Mental Health Effects
Global prevalence of anxiety and depression increased by 25%.19 Studies report elevated rates of PTSD symptoms among healthcare workers (20%–40%).19 Children faced increased emotional distress, and older adults experienced heightened loneliness (Table 6).
| Table 6: Mental health indicators during the pandemic. | ||||
| Indicator | Prevalence/Change (%) | Population Affected | Notes/Context | Data Source/Reference |
| Anxiety Disorders | ~30% | General population | Increase due to social isolation, fear of infection, economic stress | 30.8% pooled prevalence in metareview (https://www.frontiersin.org/journals/psychiatry/articles/10.3389/fpsyt.2023.1107560/full?utm_source=chatgpt.com) WHO reports ~25% increase globally (https://www.who.int/news/item/02-03-2022-covid-19-pandemic-triggers-25-increase-in-prevalence-of-anxiety-and-depression-worldwide?utm_source=chatgpt.com) |
| Depression | ~28% | General population | Comparable drivers as anxiety | 28.1% pooled prevalence in metareview (https://www.frontiersin.org/journals/psychiatry/articles/10.3389/fpsyt.2023.1107560/full?utm_source=chatgpt.com) WHO: 25% rise in first year (https://www.who.int/news/item/02-03-2022-covid-19-pandemic-triggers-25-increase-in-prevalence-of-anxiety-and-depression-worldwide?utm_source=chatgpt.com) |
| Stress/Psychological Distress | ~39% | General population | Elevated because of uncertainty, lockdowns | 39.1% pooled in umbrella review (https://www.frontiersin.org/journals/psychiatry/articles/10.3389/fpsyt.2023.1107560/full?utm_source=chatgpt.com) |
| Sleep Disorders/Insomnia | ~24% | General population/Healthcare workers | Disrupted routines, anxiety, shift work, caregiving | 23.87% insomnia in meta-analysis of COVID-affected populations (https://pubmed.ncbi.nlm.nih.gov/33285346/?utm_source=chatgpt.com) Among nurses: 43% had sleep disturbance (https://pubmed.ncbi.nlm.nih.gov/33360329/?utm_source=chatgpt.com) |
| PTSD/PTSD Symptoms | ~19% | Those exposed to trauma (e.g., frontline workers, COVID survivors) | Result of traumatic experiences, grief, long COVID | Umbrella review: 18.8% probable PTSD/PTSS (https://www.frontiersin.org/journals/psychiatry/articles/10.3389/fpsyt.2023.1107560/full?utm_source=chatgpt.com) |
| Suicidal Ideation | ~14.7% | General population | Elevated risk, especially in vulnerable sub-groups | Meta-analysis: 14.7% prevalence in general population (https://pubmed.ncbi.nlm.nih.gov/37774666/?utm_source=chatgpt.com) |
| Suicide Attempts | ~11% | Psychiatric patients | Higher risk in clinical populations | Pooled suicide attempt prevalence: 11.4% in psychiatric patients (https://pubmed.ncbi.nlm.nih.gov/36113254/?utm_source=chatgpt.com) |
| Substance Use/Alcohol Consumption | Mixed, but trend toward increase | Adults in general population | Mental health distress linked to substance use | Systematic review: 21.7%–72.9% reported alcohol use; 3.6%–17.5% other substances (https://pubmed.ncbi.nlm.nih.gov/34749198/?utm_source=chatgpt.com) |
Environmental Changes
Pandemicrelated lockdowns caused a short-term decline in global CO2 emissions of 6.4% in 2020 – the largest drop in modern history.25 Urban NO2 levels decreased by 20%–30%.25 Water quality improved in several major river basins due to reduced industrial discharge. However, plastic waste (e.g., masks, gloves) increased significantly (Figure 6).26

Lifestyle, Social Behavior, and Digital Transformation
Remote work adoption increased from 7% pre-pandemic to 38% in 2020.27 Telehealth utilization rose by over 400%,27 and e-commerce grew by 27% worldwide.27 Digital disparities, however, widened across regions (Table 7 and Figure 7).24
| Table 7: Digital transformation indicators during the pandemic. | ||||
| Indicator | Change/Adoption (%) | Population/Sector Affected | Notes/Context | Data Source/Reference |
| Remote Work/Teleworking | ↑ 40%–50% | Office-based employees, globally | Shift due to lockdowns; increased use of video conferencing, cloud tools | Eurofound (2021) – “Living, working and COVID-19” (https://www.eurofound.europa.eu/topic/covid-19) |
| E-commerce Adoption | ↑ 30%–60% | Consumers worldwide | Surge in online shopping due to store closures; growth in groceries, retail, and essentials | UNCTAD (2021) – COVID-19 and e-commerce (https://unctad.org/topic/ecommerce-and-digital-economy) |
| Digital Payments/FinTech Use | ↑ 25%–40% | Consumers and SMEs | Increased adoption of mobile wallets, online banking, contactless payments | World Bank Global Findex (2021) (https://www.worldbank.org/en/publication/globalfindex) |
| Telemedicine/Telehealth | ↑ 50%–70% | Patients, healthcare providers | Rapid deployment of virtual consultations, remote monitoring | WHO (2020) – Telemedicine and COVID-19 guidance (https://www.who.int/publications/i/item/telemedicine-covid19) |
| Online Education/E-Learning | ↑ 80%–90% | Students, schools, universities | Massive shift to online platforms; challenges include digital divide | UNESCO (2020) – COVID-19 Educational Disruption (https://en.unesco.org/covid19/educationresponse) |
| Cloud Computing Adoption | ↑ 30%–50% | Enterprises, SMEs | Increased reliance on cloud infrastructure for remote collaboration, data storage | Gartner (2021) – Cloud Computing Trends (https://www.gartner.com/en/newsroom/press-releases/2021-02-02-gartner-says-worldwide-public-cloud-revenue-to-grow-23-percent-in-2021) |
| Cybersecurity Investments | ↑ 20%–35% | Enterprises and government agencies | Response to increased cyber threats from remote work | ENISA Report 2021 – COVID-19 Cyber Threat Landscape (https://www.enisa.europa.eu/publications/enisa-threat-landscape-2021) |
| Digital Skills Development | ↑ 15%–30% | Workforce, students | Upskilling and reskilling programs accelerated to meet digital demand | OECD (2021) – Skills for a Digital World (https://www.oecd.org/skills/) |

Synthesis and Future Perspectives
Worked Application of MSRR: Education–Mental Health Feedback in LMICs
Applying the MSRR framework to education disruptions in LMICs illustrates its analytical value. The initial shock – prolonged school closures exceeding 8–12 months – interacted with limited digital access (<20%) during the response phase, resulting in substantial learning loss (0.6–1.2 SD) and reduced access to school-based psychosocial services. During recovery, these effects translated into elevated adolescent anxiety and depression, reduced future earnings potential, and widened gender disparities. Traditional single-domain analyses would treat these outcomes separately; MSRR integrates them into a single causal pathway, highlighting education continuity as a high-leverage policy priority for mental-health and economic recovery.
Operational Application of the MSRR Framework
To illustrate the analytical utility of the MSRR framework, we present an example linking health system shock to downstream social outcomes in LMICs. Pandemic-induced health system strain (Shock) led to diversion of resources from routine services, contributing to prolonged school closures and unmet mental health needs (Response). These disruptions resulted in persistent learning loss, increased adolescent anxiety and depression, and long-term labor-market scarring (Recovery phase), reinforcing structural inequities.
Positioning of MSRR Relative to Existing Frameworks
Unlike syndemic models, which primarily emphasize biological–social disease clustering, or One Health approaches, which focus on human–animal–environment interfaces, the MSRR framework explicitly models temporal system dynamics across shock, response, and recovery phases. In contrast to resilience or adaptive-cycle frameworks, MSRR operationalizes cross-domain causal pathways and feedback loops that link health shocks to socioeconomic, educational, environmental, and digital outcomes. This enables direct comparison of policy trade-offs and recovery trajectories across income settings, offering an applied decision-support lens rather than a purely descriptive systems perspective. This example demonstrates how the MSRR framework captures causal pathways, feedback loops, and cross-sectoral spillovers, offering added value beyond domain-specific analyses (Figure 8).

MultiDimensional Impact Requires Integrated Response
The pandemic did not only burden healthcare systems but also catalyzed far-reaching economic, social, and environmental consequences. Research reveals that mental health service provision underwent dramatic reorganization, with many psychiatric units disrupted and inpatient care restructured, while telepsychiatry scaled up to compensate (Table 8).28 In parallel, the deterioration in health-related quality of life among COVID-19 survivors has been well-documented. A systematic review of multiple studies found persistent fatigue, psychological distress, and reduced physical functioning, especially in more severely affected patients.29
On the socio-economic front, the sharing economy was strongly disrupted: platforms dependent on mobility and lodging saw both short-term collapse and long-term structural shifts. The service sector’s sustainability was challenged globally, reflecting fragility in economic models that rely heavily on in-person interactions.27 Environmental studies also highlight a paradox: while lockdowns temporarily lowered emissions and underwater noise, they simultaneously increased medical and plastic waste, stressing coastal and marine ecosystems.28
| Table 8: Comparison of this review with prior multidomain COVID-19 reviews. | ||
| Feature | Prior Reviews | This Review |
| Domains covered | Single or dual | Health, socioeconomic, education, environment, digital |
| Framework | Narrative | MSRR systems framework |
| Income stratification | Limited | Explicit HIC vs. LMIC |
| Policy linkage | General | SDG-mapped actionable policies |
| Timeframe | Mostly 2020–2022 | Dec 2019–Oct 2024 |
Resilience and Adaptation Emerged as Central Themes
Community-level responses played a vital role in mitigating the impact of the pandemic. A global systematic review documented how flexible, locally tailored strategies including social support, public-health messaging, and community engagement helped stabilize transmission and foster resilience. In the tourism sector, the crisis was also framed as an opportunity: a systematic review suggested that promoting wellbeing and resilience – not just economic recovery – can redefine future tourism models. Moreover, a bibliometric analysis of postCOVID management strategies in hospitality underscores the need for policy innovation to embed psychological wellbeing into recovery.29
Unequal Impacts Expose Structural Vulnerabilities
The literature consistently shows that LMICs suffered disproportionately, especially among adolescents. A rapid review focused on this group revealed deep educational, economic, social, and health inequities. Telemedicine usage in LMICs was a double-edged sword: while it held promise for maintaining continuity of care, access remained uneven. There are also important systemic reflections on sustainable development: Maqbool et al. (2023) argued that the pandemic’s socio-economic and environmental implications demand policies that integrate long-term ecological health with human wellbeing.
Future Perspectives and Research Directions
Based on these insights, the following strategic pathways and research priorities emerge:
Strengthening Health System Resilience
- Universal Telehealth Infrastructure: Scaling up telemedicine permanently, especially in LMICs, to increase health system flexibility.
- Mental Health Investment: Sustained funding for community-based mental health services. The surge in demand during the pandemic highlighted gaps in accessibility and adaptability.30
- PostCOVID Rehabilitation Programs: Integrated recovery plans targeting persistent physical and psychological sequelae, informed by HRQoL data.
Economic and Service Sector Innovation
- Reimagining the Sharing Economy: Policies and business models should pivot toward sustainability and risk-buffering (e.g., contingency plans for mobility shocks).31
- Diversifying Service Sector Models: Encourage hybrid models in hospitality and tourism that blend remote, digital, and in-person experiences, embedding wellbeing as a core value.
- Pandemic Preparedness Financing: Governments and institutions need mechanisms (e.g., pandemic bonds, global funds) to manage economic shock while maintaining essential services.
Environmental Governance and Waste Management
- Sustainable Medical Waste Policies: Frameworks to manage post-pandemic plastic pollution, especially PPE, to minimize long-term ecological damage.
- Blue Economy and Coastal Resilience: Promote the sustainable development of ocean-based economies (fisheries, tourism) through adaptive policies and cross-sectoral cooperation.28
- Climate-Health Linkages Research: Use machine learning, mobility data, and environmental modeling to study how future pandemics intersect with air quality, urban form, and emissions.
Social Equity and Community Empowerment
- Targeted Support for Vulnerable Populations: Adolescents, marginalized communities, and LMICs need tailored interventions to address educational, mental health, and social gaps.
- Community-led Crisis Frameworks: Foster local governance and participatory models to strengthen community resilience and responsiveness to future health emergencies.32
- GenderResponsive Policies: Recognize and mitigate the disproportionate burdens on women (employment loss, caregiving, domestic violence) during crises.
Policy Integration and Global Health Governance
- Sustainable Development Alignment: Recovery policies should be aligned with SDGs (e.g., sustainable cities, health, education, climate), ensuring long-term societal gains.
- Psychological Sustainability: Policymakers should integrate mental health, wellbeing, and resilience into economic and urban planning, not treat them as afterthoughts.
- Cybersecurity and Health Systems: Strengthen cybersecurity in health infrastructure to prepare for increased digitalization and future cyber risks.32
To strengthen the policy relevance of the manuscript, the Policy and Governance section has been substantially revised and expanded. The updated narrative now presents clear, evidence-driven policy pathways that directly align with the findings of this review. Specifically, the section emphasizes (i) health-system resilience financing through surge-capacity planning, supply-chain buffers and investments in primary care; (ii) gender-responsive crisis planning that integrates GBV prevention and women’s economic protection; (iii) digital equity and cybersecurity frameworks aimed at closing connectivity gaps and ensuring safe digital-health expansion; (iv) sustainable waste-management and emissions governance, particularly for PPE and medical waste; and (v) food-system resilience and cross-border supply-chain security.33,34 The revised text strengthens the link between empirical evidence, policy implications, and actionable recommendations, improving the manuscript’s overall clarity, coherence, and applied relevance.
While this review synthesizes extensive global data, limitations include variability in reporting quality across regions, rapidly evolving evidence during the pandemic, and reliance on secondary datasets that may mask national heterogeneities. Nonetheless, the consistency of trends across independent sources strengthens the validity of the multidimensional patterns presented (Table 9).
| Table 9: Policy recommendations mapped to SDGs and implementation barriers. | |||
| SDG | Policy Recommendation | Key Indicators | Implementation Barriers (LMIC vs. HIC) |
| SDG 1: No Poverty | Social protection floors; emergency cash transfers | Poverty rate, coverage of safety nets | LMIC: limited fiscal space; HIC: policy inertia |
| SDG 2: Zero Hunger | Strengthen food-supply resilience; expand nutrition programs | Food insecurity prevalence; child malnutrition rates | LMIC: supply-chain instability; HIC: unequal access |
| SDG 3: Good Health and Well-Being | Universal telehealth access; surge-capacity planning; mental health integration | Telehealth availability, ICU capacity, MHPSS coverage | LMIC: infrastructure gaps; HIC: service fragmentation |
| SDG 4: Quality Education | Hybrid learning systems; digital-device provision; teacher training | Learning loss metrics; digital access rates | LMIC: connectivity; HIC: socioeconomic disparities |
| SDG 5: Gender Equality | GBV response systems; economic empowerment programs | GBV reporting rates; women’s labor-force participation | LMIC: sociocultural constraints; HIC: care burden inequality |
| SDG 8: Decent Work and Economic Growth | Labor-market recovery programs; MSME financial support | Employment rates; MSME survival | LMIC: informal labor markets; HIC: automation-driven displacement |
| SDG 9: Industry, Innovation and Infrastructure | Digital infrastructure expansion; resilient supply chains | Broadband penetration; supply chain recovery indices | LMIC: investment deficits; HIC: cybersecurity vulnerabilities |
| SDG 10: Reduced Inequalities | Targeted support for vulnerable groups; inclusive digital reforms | Inequality indices; inclusion metrics | LMIC: weak social systems; HIC: migrant integration gaps |
| SDG 11: Sustainable Cities and Communities | Urban health surveillance; public-transport resilience | Air quality indices; mobility data | LMIC: insufficient planning; HIC: slow decarbonization |
| SDG 13: Climate Action | Green recovery packages; waste-management governance (incl. PPE waste) | Emissions trends; waste-recycling rates | LMIC: regulatory gaps; HIC: political resistance |
| SDG 16: Peace, Justice and Strong Institutions | Crisis-governance reforms; transparent data systems | Governance effectiveness; data openness | LMIC: institutional capacity; HIC: trust erosion |
Limitations
This scoping review has several important limitations that should be acknowledged when interpreting the findings. First, substantial regional heterogeneity exists in how countries experienced and responded to the pandemic; differences between HICs and LMICs in health-system capacity, economic resilience, and digital infrastructure may limit generalizability of cross-country comparisons. Second, the quality, granularity, and completeness of available datasets varied widely across regions, with underreporting and inconsistent surveillance systems influencing the accuracy of health, socioeconomic, and environmental indicators. Third, the evidence base – particularly in mental health, socioeconomic, and education research – is affected by publication bias, where studies showing large or negative effects were more likely to be published, LOW and potentially inflating observed impacts.
Fourth, COVID-19 literature is inherently rapidly evolving, creating challenges in ensuring complete and up-to-date coverage, especially for studies published near or after the manuscript’s cut-off date. Fifth, comparing pre-pandemic and post-pandemic datasets is complicated by changes in measurement tools, survey methodologies, and data-collection periodicity, which may introduce inconsistencies across time. Finally, considerable temporal heterogeneity exists between short-term shock effects (e.g., immediate mobility decline, acute mental health spikes) and long-term consequences (e.g., learning loss, chronic socioeconomic shifts), meaning that some long-duration impacts may not yet be fully observable. These limitations underscore the need for cautious interpretation while highlighting the importance of ongoing longitudinal and comparative research.
Concluding Reflections
COVID-19 was not merely a health crisis but a system-level stress test. The synthesis of multidimensional impacts shows that resilience must be built into systems not just to absorb shocks, but also to transform toward more sustainable, equitable, and adaptive models. Future pandemic preparedness should therefore be rooted in holistic strategies: combining health, economic, social, and environmental policies. Crucially, these strategies must be inclusive, targeting those most vulnerable, and forward-looking, embedding technological innovation, community engagement, and cross-sectoral governance. By learning from the pandemic’s lessons, the global community can better navigate not only future health emergencies but also the deeper challenge of sustainable development in an uncertain world.
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Supplementary
Supplementary File S1
Detailed Search Strategy and Database Queries
Databases Searched:
- PubMed/MEDLINE
- Scopus
- Web of Science Core Collection
- Embase
- EconLit
- WHO COVID-19 Global Literature Database
- Search period: December 1, 2019 – October 31, 2024
- Language: English only
- Document types: Peer-reviewed articles, systematic reviews, meta-analyses, large observational studies, and authoritative institutional reports
Core Concept Structure
Concept 1 (Pandemic)
“COVID-19” OR “SARS-CoV-2” OR “coronavirus disease 2019”
Concept 2 (Domains)
“health systems” OR “mental health” OR “public health” OR “education” OR “economic impact” OR “socioeconomic” OR “employment” OR “poverty” OR “environmental change” OR “emissions” OR “air quality” OR “digital transformation” OR “telemedicine” OR “online learning” OR “governance” OR “resilience”
Database-Specific Search Strings
PubMed/MEDLINE:
((“COVID-19”[Mesh] OR “SARS-CoV-2”[Mesh] OR COVID-19[tiab] OR SARS-CoV-2[tiab]) AND (“Health Systems”[Mesh] OR “Mental Health”[Mesh] OR education[tiab] OR economic*[tiab] OR environment*[tiab] OR digital*[tiab] OR governance[tiab] OR resilience[tiab]))
ScopuS
TITLE-ABS-KEY (COVID-19 OR SARS-CoV-2) AND TITLE-ABS-KEY (health OR “health systems” OR education OR economic* OR environment* OR digital* OR governance OR resilience)
Web of Science Core Collection:
TS=(COVID-19 OR SARS-CoV-2) AND TS=(health OR “health systems” OR education OR economic* OR environment* OR digital* OR governance OR resilience)
| Table S1: Overall methodological appraisal outcomes of included studies (n = 239). | ||
| Quality Tier | Number of Studies | Percentage (%) |
| High confidence | 62 | 25.9 |
| Moderate confidence | 109 | 45.6 |
| Low confidence | 68 | 28.5 |
| Total | 239 | 100 |
| Table S2: Distribution of methodological appraisal tiers by impact domain. | |||
| Domain | High | Moderate | Low |
| Health and Mental Health | 24 | 38 | 19 |
| Socioeconomic and Labor | 15 | 31 | 21 |
| Education | 9 | 18 | 12 |
| Environmental | 7 | 13 | 9 |
| Digital and Governance | 7 | 9 | 7 |
| Table S3: Completed PRISMA-ScR checklist and location of reported items. | ||
| PRISMA-ScR Item | Description | Reported Section |
| Title | Identified as a scoping review | Title page |
| Abstract | Structured summary | Abstract |
| Rationale | Background and justification | Introduction |
| Objectives | Explicit review questions | Introduction |
| Eligibility criteria | Inclusion/exclusion criteria | Methods |
| Information sources | Databases and dates | Methods |
| Search strategy | Full strategy provided | S1 |
| Selection of sources | Screening process | Methods |
| Data charting | Data extraction methods | Methods |
| Critical appraisal | AMSTAR-2 and JBI | Methods/S2 |
| Synthesis of results | Narrative + MSRR framework | Results |
| Limitations | Study limitations | Discussion |
| Conclusions | Implications and relevance | Conclusion |
| Funding | Not applicable/declared | Declarations |
Embase:
(‘covid-19’/exp OR ‘sars-cov-2’/exp) AND (‘health system’/exp OR ‘mental health’/exp OR education:ti,ab OR economic*:ti,ab OR environment*:ti,ab OR digital*:ti,ab)
EconLit:
(COVID-19 OR SARS-CoV-2) AND (economic impact OR employment OR poverty OR inequality OR recovery)
WHO COVID-19 Database:
COVID-19 AND (health systems OR education OR economy OR environment OR digital)
Google Scholar Use
Google Scholar was used only for citation chaining and identification of grey literature already cited in eligible studies. It was not used as a primary retrieval database, and no independent screening counts were generated from Google Scholar.
Supplementary File S2
Quality Appraisal Summary (AMSTAR-2 and JBI)
Appraisal Tools Applied:
- AMSTAR-2: Systematic reviews and meta-analyses
- Joanna Briggs Institute (JBI): Observational, qualitative, and mixed-methods studies
- Quality appraisal was conducted after inclusion and used to contextualize evidence strength, not to exclude studies.
Overall Appraisal Outcomes
Summary of methodological quality appraisal across all included studies using AMSTAR-2 and Joanna Briggs Institute (JBI) criteria. Studies were classified into high-, moderate-, or low-confidence tiers. No studies were excluded solely on the basis of appraisal outcomes; rather, confidence tiers were used to weight evidentiary contribution in the synthesis.
Appraisal by Domain
Domain-specific distribution of high-, moderate-, and low-confidence studies across major impact domains, based on AMSTAR-2 and JBI appraisal. High-confidence studies primarily informed core conclusions, moderate-confidence studies supported consistency of observed trends, and low-confidence studies contributed contextual or exploratory insights.
Use of Appraisal in Synthesis
- High-confidence studies informed primary conclusions
- Moderate-confidence studies supported trend consistency
- Low-confidence studies contributed contextual or exploratory insights only
- No studies were excluded solely on the basis of quality.
Supplementary File S3
PRISMA-ScR Checklist (Completed)
Completed PRISMA-ScR (Preferred Reporting Items for Systematic Reviews and Meta-Analyses Extension for Scoping Reviews) checklist indicating where each reporting item is addressed within the manuscript and supplementary materials, ensuring transparency, reproducibility, and adherence to scoping review reporting standards.
Supplementary File S4
Evidence Matrix of Included Studies (n = 239), Stratified by Domain, Region, Income Classification, Study Design, Appraisal Tier, and Quantitative Outcome Ranges
Evidence Presentation and Supplementary Matrix:
To enhance transparency, reproducibility, and evidentiary clarity, this scoping review includes a comprehensive supplementary evidence matrix (Supplementary File S4). The matrix systematically catalogues all 239 studies included in the final synthesis, providing structured metadata and quantitative attribution across domains. Each included study is indexed and stratified according to: (i) primary impact domain (health systems, mental health, socioeconomic outcomes, education, food security, environment, digital transformation, gender and social equity); (ii) geographic region (global, regional, or country-specific); (iii) World Bank income classification (high-income countries [HICs] vs. low- and middle-income countries [LMICs]); (iv) study design (systematic review, meta-analysis, observational study, modeling study, or institutional dataset); and (v) methodological appraisal tier based on AMSTAR-2 or Joanna Briggs Institute (JBI) criteria (high, moderate, or low confidence).
In addition to bibliographic and methodological classification, the supplementary matrix reports domain-specific quantitative outcome ranges, where available, directly linked to the primary source citations. These include, for example: pooled prevalence estimates of anxiety, depression, and PTSD symptoms; ranges of learning loss expressed in standard deviations or months of schooling; percentage changes in employment, GDP, and trade volume; changes in food insecurity prevalence and FAO food price indices; reductions in NO₂, PM₂.₅, and CO₂ emissions; and adoption rates for telehealth, remote work, and digital services. For each quantitative indicator, the matrix specifies the reported range, geographic scope, time period, and corresponding reference(s).
This structured evidence presentation enables readers to trace synthesized conclusions back to individual studies, assess the distribution of evidence across regions and income settings, and interpret findings in light of methodological quality. The matrix also supports cross-domain comparison and highlights areas of evidentiary concentration and scarcity, thereby strengthening the interpretability and policy relevance of the Multidimensional Shock–Response–Recovery (MSRR) framework. Collectively, Supplementary File S4 serves as a transparent concordance between narrative synthesis, figures and tables, and the underlying empirical literature.








