Évaluation empirique des pratiques AGI dans l’industrie manufacturière française
Table Of Contents
Chapter ONE
INTRODUCTION
- 1.1Introduction
- 1.2Background of the Study
- 1.3Statement of the Problem
- 1.4Aim and Objectives of the Study
- 1.5Research Questions
- 1.6Research Hypotheses
- 1.7Significance of the Study
- 1.8Scope and Delimitation of the Study
- 1.9Limitations of the Study
- 1.10Organisation of the Study
- 1.11Operational Definition of Terms
Chapter TWO
LITERATURE REVIEW
- 2.1Conceptual review: Defining AGI practices in manufacturing
- 2.2Conceptual review: Digital maturity and AI governance in plants
- 2.3Theoretical framework: Technology-Organization-Environment (TOE) lens
- 2.4Theoretical framework: Diffusion of Innovations (DOI) theory
- 2.5Empirical review: Adoption patterns of AGI in European manufacturing
- 2.6Empirical review: Impact of AGI on productivity in manufacturing
- 2.7Empirical review: Risk, ethics, and governance of AGI deployments
- 2.8Empirical review: Data quality and interoperability in AGI systems
- 2.9Empirical review: Workforce skills and change management for AGI
- 2.10Empirical review: Supplier and ecosystem influences on AGI uptake
- 2.11Gaps in the literature: underexplored sectors and contextual factors
- 2.12Conceptual model: Integrated model of AGI practices in French manufacturing
- 2.13Summary of the literature and research gaps
Chapter THREE
RESEARCH METHODOLOGY
- 3.1Research design: Cross-sectional mixed-methods study of French manufacturers
- 3.2Philosophical paradigm: Pragmatism guiding mixed-method inference
- 3.3Population of the study: French manufacturing firms employing AGI practices
- 3.4Sampling frame and unit of analysis
- 3.5Sample size and sampling technique: stratified random sampling with purposeful strata
- 3.6Data sources: primary and secondary data collections
- 3.7Instruments of data collection: structured surveys and semi-structured interviews
- 3.8Instrument validity and reliability: pilot testing and reliability analysis
- 3.9Data collection procedures: administration and ethics approvals
- 3.10Data analysis plan: quantitative statistics and qualitative thematic analysis
- 3.11Model specification: regression-based analysis and structural equation modeling
- 3.12Ethical considerations: consent, confidentiality, and data protection
Chapter FOUR
DATA PRESENTATION AND ANALYSIS
- ANALYSIS AND DISCUSSION OF FINDINGS
- 4.1Data presentation: respondent characteristics and firm profiles
- 4.2Descriptive analysis: extent of AGI practices across sectors
- 4.3Reliability and validity of measurement scales
- 4.4Hypotheses testing: impact of AGI practice on productivity indicators
- 4.5Hypotheses testing: relationship between governance maturity and risk exposure
- 4.6Hypotheses testing: skill development and workforce adaptation effects
- 4.7Multivariate analysis: moderating effects of firm size and sector
- 4.8Discussion of findings: alignment with theoretical frameworks and prior studies
Chapter FIVE
SUMMARY, CONCLUSION AND RECOMMENDATIONS
- CONCLUSION AND RECOMMENDATIONS
- 5.1Summary of findings
- 5.2Conclusion
- 5.3Contribution to knowledge
- 5.4Practical recommendations for manufacturers and policymakers
- 5.5Recommendations for future research
- 5.6Limitations and scope for follow-up studies
Thesis Abstract
The rapid integration of artificial general intelligence (AGI) capabilities into manufacturing environments presents a strategic shift with potential productivity gains, quality improvements, and labor displacement risks, yet empirical evidence on actual practices, effectiveness, and organizational impact remains fragmented. This study addresses the gap by providing a rigorous empirical evaluation of AGI-driven practices in the French manufacturing sector, focusing on how AGI is adopted, operationalized, and linked to performance outcomes in real-world production settings. The aim is to determine the extent to which AGI interventions influence operational performance, workforce competencies, and process resilience, while unpacking contextual drivers and barriers across firms of varying sizes and maturities. Specific objectives include (1) mapping the prevalence and typologies of AGI applications deployed in French manufacturing plants over the past three years; (2) assessing the relationship between AGI deployment and key performance indicators such as Overall Equipment Effectiveness (OEE), defect rate, throughput, and energy efficiency; (3) examining the moderating roles of organizational factors (leadership support, data governance, and change management practices) on the AGI–performance linkage; (4) exploring workforce implications in terms of skill requirements, training needs, and job design; and (5) identifying contextual factors—industry subsector, plant size, and supply chain characteristics—that condition the benefits and risks of AGI adoption. The research adopts a mixed-methods design anchored in the Resource-Based View and Dynamic Capabilities Theory to explain how firms leverage AGI resources for competitive advantage while adapting capabilities to evolving environments. A sequential explanatory approach begins with a cross-sectional survey of 120 manufacturing plants across automotive, electronics, and consumer goods sectors in France, followed by in-depth case studies in 6 representative plants to triangulate survey findings. The population comprises French manufacturing firms actively employing AGI-enabled systems for production planning, quality control, predictive maintenance, and autonomous robotics. A stratified random sampling technique ensures representation by plant size (SMEs and large enterprises) and subsector. Data collection instruments include a structured questionnaire validated for construct reliability (Cronbach’s alpha > 0.70) and semi-structured interview guides with plant managers, operations directors, data scientists, and shop-floor engineers. Secondary data from plant dashboards provides objective metrics such as OEE, defect rates, cycle times, and energy consumption, supplemented by archival records on AGI project timelines and investment levels. Quantitative analysis employs descriptive statistics to profile AGI deployments and correlational methods to assess associations with performance metrics. Regression analyses (multivariate and hierarchical) test the direct and interaction effects of AGI intensity on operational outcomes, controlling for firm size, capital expenditure, and sector. Time-lagged analyses explore delayed effects. For the qualitative phase, thematic analysis of interview transcripts identifies emergent patterns related to organizational readiness, data governance, change management, and skills development, with coding guided by the theoretical constructs of the Dynamic Capabilities framework. A convergent mixed-methods integration synthesizes quantitative results with qualitative insights to provide a holistic understanding of how, why, and under which conditions AGI practices yield measurable benefits or pose risks. Expected findings anticipate a positive association between robust AGI implementation—characterized by integrated data pipelines, real-time analytics, and decision automation—and improvements in OEE, defect reduction, and throughput, moderated by strong data governance and leadership commitment. The study also expects to reveal nuanced workforce implications, including a shift toward higher-demand analytical and problem-solving competencies, along with targeted reskilling needs and potential transitional job design challenges. Variations are anticipated across subsectors and plant sizes, with larger firms more likely to realize substantial efficiency gains given scale economies and mature data platforms, while SMEs may face higher adoption costs and data integration hurdles. The contribution to knowledge lies in providing the first comprehensive, empirically grounded assessment of AGI practices in a European manufacturing context, clarifying the conditions under which AGI yields tangible performance gains and how organizational capabilities mediate those outcomes. The study informs managers and policymakers about optimal governance structures, investment prioritization, and human-capital strategies necessary to harness AGI’s potential while mitigating adverse effects. Practical recommendations include developing enterprise-wide data stewardship protocols, fostering cross-functional AGI governance boards, and implementing targeted training programs that align with anticipated process reengineering and quality improvements.
Thesis Overview
This research explores how Artificial General Intelligence (AGI) practices are actually used in French manufacturing, examining what companies do, why they do it, and how effective these practices are in real production settings. The study addresses a gap between the rapid development of AGI technologies and the concrete, empirical understanding of their adoption, impact on performance, and associated challenges in a European manufacturing context.
Why it matters: AGI promises broad problem-solving capabilities, but its adoption in manufacturing can affect productivity, quality, innovation, and workforce dynamics. Understanding what works in practice helps managers allocate resources wisely, policymakers craft supportive guidelines, and researchers refine theoretical models of technology diffusion and organizational learning.
Research questions and approach: The project investigates (1) which AGI practices are currently implemented in French factories, (2) the drivers and barriers to adoption, (3) the impact of AGI use on operational metrics such as throughput, defect rate, downtime, and energy efficiency, and (4) the organizational and human factors that mediate these effects. The study adopts a mixed-methods design to balance breadth and depth.
Data collection and analysis: Data will be gathered from a cross-section of mid- to large-size manufacturing firms across sectors (e.g., automotive, aerospace, consumer electronics) via structured surveys (n ? 120 respondents) and semi-structured interviews (n ? 25). Operational performance data will be requested for a 12–24 month window, subject to confidentiality. Quantitative analysis will include regression models to assess relationships between AGI practices and performance indicators, controlling for size, sector, and prior digital maturity. Qualitative data will be analyzed using thematic analysis to identify patterns of implementation, perceived benefits, and challenges, with triangulation to reinforce findings.
Potential contributions and outcomes: The study will clarify which AGI practices yield measurable benefits, illuminate the conditions that enable successful adoption, and contribute a framework linking AGI deployment to operational performance. Expected outcomes include a typology of AGI practices, a set of practical implementation guidelines, and insights into IT–operations alignment and workforce implications.
Feasibility and scope: The project is designed to be completed within a two-year master’s or four-year PhD timeframe, with data from French manufacturing firms, ensuring relevance to national policy and industry strategy.