Adaptive AI-Driven Supplier Risk Scoring System in Procurement
Table Of Contents
Chapter ONE
INTRODUCTION
- 1.
- 1.1Introduction
- 2.
- 1.2Background of the Study in Supplier Risk Scoring
- 3.
- 1.3Statement of the Problem in Procurement Risk Assessment
- 4.
- 1.4Aim and Objectives of the Study for an Adaptive AI Scoring System
- 5.
- 1.5Research Questions Guiding AI-Driven Risk Scoring
- 6.
- 1.6Research Hypotheses for AI-Based Risk Prediction
- 7.
- 1.7Significance of the Study to Procurement and Supply Chain
- 8.
- 1.8Scope and Delimitation of the AI-Driven Scoring System
- 9.
- 1.9Limitations of the Study in Data and Model Deployment
- 10.
- 1.10Organisation of the Study
- 11.
- 1.11Operational Definition of Terms for AI Supplier Risk
Chapter TWO
LITERATURE REVIEW
- 12.
- 2.1Conceptual Review of Supplier Risk in Procurement
- 13.
- 2.2AI and Machine Learning in Risk Scoring: Concepts and Techniques
- 14.
- 2.3Theoretical Framework: Risk Management Theory and Dynamic Scoring Theory
- 15.
- 2.4Theoretical Framework: Technology Acceptance and AI Trust in Procurement
- 16.
- 2.5Empirical Review: AI-Driven Supplier Evaluation Systems
- 17.
- 2.6Empirical Review: Real-Time Risk Monitoring in Supply Networks
- 18.
- 2.7Empirical Review: Data Quality and Governance in AI Models
- 19.
- 2.8Empirical Review: Interpretability and Explainability in Procurement AI
- 20.
- 2.9Empirical Review: Compliance, Governance, and Regulatory Considerations
- 21.
- 2.10Empirical Review: Blockchain and Provenance in Supplier Risk
- 22.
- 2.11Data Integration and Interoperability in Supply Chains
- 23.
- 2.12Gaps in the Literature on Adaptive AI Risk Scoring
- 24.
- 2.13Conceptual Model or Synthesis of Review
Chapter THREE
RESEARCH METHODOLOGY
- 25.
- 3.1Research Design: Mixed-Methods for AI-Driven Risk Scoring
- 26.
- 3.2Philosophical Paradigm: Pragmatism in AI Procurement Research
- 27.
- 3.3Population of the Study: Global Procurement Networks
- 28.
- 3.4Sample Size and Sampling Technique for Supplier Data
- 29.
- 3.5Data Sources and Instruments: AI Scoring System Components
- 30.
- 3.6Validation and Reliability of Instruments for Risk Scoring
- 31.
- 3.7Data Collection Procedures and Access Protocols
- 32.
- 3.8Data Preprocessing, Cleaning, and Feature Engineering
- 33.
- 3.9Model Specification: Adaptive AI Scoring Architecture
- 34.
- 3.10Data Analysis Methods: Evaluation of Predictive Power and Stability
- 35.
- 3.11Ethical Considerations in AI-Driven Procurement Research
Chapter FOUR
DATA PRESENTATION AND ANALYSIS
- ANALYSIS AND DISCUSSION OF FINDINGS
- 36.
- 4.1Data Presentation: Descriptive Overview of Supplier Dataset
- 37.
- 4.2Descriptive Analysis of Feature Importances and Model Outputs
- 38.
- 4.3Hypotheses Testing: Predictive Accuracy of Adaptive Scoring
- 39.
- 4.4Hypotheses Testing: Stability Under Data Drift
- 40.
- 4.5Interpretation of Results in the Context of AI Risk Scoring
- 41.
- 4.6Discussion of Findings Relative to Conceptual Review
- 42.
- 4.7Findings on Explainability and User Trust in Procurement Teams
- 43.
- 4.8Implications for Policy, Governance, and Compliance
Chapter FIVE
SUMMARY, CONCLUSION AND RECOMMENDATIONS
- CONCLUSION AND RECOMMENDATIONS
- 44.
- 5.1Summary of Key Findings
- 45.
- 5.2Conclusions Drawn from the AI-Driven Scoring System
- 46.
- 5.3Contributions to Knowledge and Practice in Procurement
- 47.
- 5.4Practical Recommendations for Implementing Adaptive AI Risk Scoring
- 48.
- 5.5Suggestions for Further Studies and Technology Enhancements
Thesis Abstract
The study addresses the pervasive risk management gaps in supplier networks within large-scale procurement by developing an adaptive, AI-driven supplier risk scoring system that dynamically assesses and updates risk profiles in real time. The central aim is to design, validate, and operationalize a decision-support tool that integrates machine learning, network analytics, and domain-specific risk factors to enhance procurement resilience and supplier collaboration. Specific objectives include (1) identifying a comprehensive set of quantitative and qualitative risk indicators across financial, operational, supplier diversity, geopolitical, and cyber-security domains; (2) developing a hybrid predictive model that updates risk scores using incremental learning techniques and feedback from procurement outcomes; (3) evaluating model performance against traditional weighted-scorecard approaches using historical procurement data; (4) analyzing the impact of the AI-driven scoring system on decision lead times, supplier selection accuracy, and disruption incidence; and (5) formulating governance and ethical guidelines for AI-enabled procurement risk management. The study adopts a pragmatic mixed-methods design anchored in the resource-based view and transaction cost theory to justify the strategic value of risk intelligence in supply networks and to interpret model outputs for procurement professionals. The population comprises procurement professionals, supplier managers, and risk analysts within multinational manufacturing firms. A purposive sampling frame identifies 12 organizations with diverse supplier bases, and within each organization a stratified sample of 5–7 procurement teams (n ? 72 individuals) is surveyed and interviewed to triangulate quantitative findings with qualitative insights. Data collection combines (a) archival procurement data spanning five fiscal years (approximately 1.2 million transaction records, supplier performance data, and disruption logs) and (b) primary data from a structured 36-item survey measuring perceived risk dimensions, decision quality, and system usability, complemented by semi-structured interviews with 20 key informants. Instruments are validated through content validity by risk management scholars and pilot-tested with a subset of 12 respondents. The analytical framework employs (i) regression analysis and machine learning techniques, including gradient boosting and recurrent neural networks, to build and adapt the risk scoring model; (ii) time-series analysis to examine score stability and sensitivity to external shocks; (iii) network analytics to capture inter-supplier dependencies and cascading risk effects; and (iv) thematic analysis of interview transcripts to elucidate practitioner interpretations and governance concerns. Model performance is benchmarked against traditional scorecards using metrics such as AUC-ROC, F1-score, mean absolute error, and decision accuracy in supplier selection across disruption scenarios. Expected findings indicate that the adaptive AI framework achieves superior predictive accuracy and faster update cycles (real-time to hourly) compared with static methods, reduces undisrupted supply days by 12–18%, and improves procurement decision speed by 15–20% without compromising risk controls. The study anticipates identifying key drivers of model performance, including feature engineering of financial health signals, supplier resilience indicators, and event-driven reweighting schemes, as well as potential biases and ethical considerations in automated decisions. The contribution to knowledge encompasses (a) methodological advancement in integrating adaptive machine learning with network-based risk analytics in procurement; (b) empirical evidence on the effectiveness of continuous learning systems in supplier risk management under varying macroeconomic conditions; and (c) a practical, governance-oriented framework outlining data stewardship, transparency, and human-in-the-loop requirements for AI-enabled procurement. The main conclusion posits that an adaptive AI-driven supplier risk scoring system substantially enhances procurement resilience by delivering timely, context-aware risk assessments that support proactive supplier development and contract strategy. Recommendations include deploying modular AI components for incremental integration, establishing AI governance boards to oversee model drift and fairness, investing in cyber and data privacy measures for supplier data, and pursuing longitudinal studies to assess long-term impact on supply chain performance and sustainability metrics.
Thesis Overview
This research investigates how artificial intelligence can automatically assess and monitor supplier risk to improve procurement decisions. It combines data from purchase histories, supplier audits, financial signals, and external risk feeds to produce a dynamic risk score that adapts as new information becomes available. The goal is to move beyond static, one-time supplier evaluations to a continuous, learning system that helps buyers mitigate disruptions, quality failures, and ethical or compliance problems.
Why it matters: procurement decisions deeply affect supply continuity, cost, and reputational risk. Traditional supplier risk assessments are often manual, infrequent, and rely on static criteria, which can miss emerging threats. An AI-driven, adaptive scoring model promises faster detection of at-risk suppliers, better prioritization of risk mitigation actions, and more resilient supply networks.
Problem or knowledge gap: while there are risk assessment tools, few incorporate real-time data streams and continuous learning to update risk estimates. There is also a lack of integration between supplier performance data, financial indicators, and external macro risk signals within a unified scoring framework. This study aims to design and validate a practical, scalable solution that blends machine learning with decision-support capabilities, underpinned by established risk theories.
What the researcher will do step by step:
1. Define scope: identify procurement categories, supplier set, and risk dimensions (operational, financial, compliance, cybersecurity, ESG).
2. Collect data: assemble historical procurement records, supplier performance metrics, audit results, financial statements, and external risk feeds for a defined period (e.g., 5 years, 200–300 suppliers).
3. Prepare data: clean, harmonize features, handle missing values, and engineer indicators such as lead-time volatility and payment delinquency trends.
4. Develop model: build a supervised learning framework that outputs a probability of supplier failure or disruption; implement adaptive mechanisms (online learning, sliding windows) to update scores with new data.
5. Validate: test predictive performance using metrics like AUC, precision-recall, calibration plots; compare against baseline static scores.
6. Interpretability: apply feature importance analysis and SHAP values to explain drivers of risk.
7. Ethical and governance checks: ensure data privacy, bias mitigation, and alignment with procurement policies.
8. Deployment plan: outline integration with existing ERP/purchasing systems and user dashboards for decision support.
Expected contribution and outcome:
- A novel, adaptable supplier risk scoring framework that fuses internal and external data within an AI-enabled decision-support tool.
- Empirical evidence on predictive performance and practical guidance for deployment, governance, and change management.
- Enhanced understanding of how dynamic data influence supplier risk trajectories and procurement resilience.