Orchestrating the Twin Transition in Multinational Corporations: Technology Roadmapping for Green and Digital Global Business Services

RS-PO-1B: Innovation Policy, Regulation & Standards, ICE 32nd Ed.

Han-Teng Liao & Karen Ang

2026-06-22

Orchestrating the Twin Transition in Multinational Corporations

Technology Roadmapping for Green and Digital Global Business Services

  • RS-PO-1B: Innovation Policy, Regulation & Standards, ICE 32nd Ed.

  • Monday, 22/June/2026: 3:00pm - 4:20pm; Location: Room Porto

Han-Teng Liao 0000-0003-1081-5599
Independent Researcher

Karen Ang 0009-0008-5923-0106
Independent Researcher / Infineon

🌱 Personal Background and Angle

Huang’s vision under scrutiny

🌱 Section I: Introduction

Context: Structural Realignment & Digital Resonance

2026 GBS Landscape: Ecosystem Maturity

Table.I
  • Digital Resonance: Realignment toward high-tech automation and cybersecurity, superseding labor arbitrage.
  • Twin Transition: GBS hubs as “living laboratories” harmonizing technical execution with sustainability.
  • Innovation Ecosystems: Poland, Portugal, and Malaysia operationalizing transitions at scale.

🌱 Section I: Introduction

I.B Motivation & I.C Objectives

  • Inflection Point: Obsolescence of “lift and shift” models in favor of “lean orchestration” and process normalization.
  • The Leadership Gap: Transition is governed by the “human factor,” where executive ROI expectations often clash with organizational inertia.
  • Operational Airlocks: Hubs insulate global value chains from U.S.-China bifurcation while mitigating middle-income traps through high-value talent.
  • Systematic Roadmapping: Determining if academic discourse reflects the shift to high-value orchestration or remains tethered to cost-centric paradigms.
  • Research Objective: How has the GBS domain evolved globally in academic outputs?

📚 Section II: Literature Review

II.A-B Ecosystem Gaps & The Maturity Trap

  • Data Integration: Evolving from localized data hubs to distributed networks.
  • The Maturity Trap: AI infrastructure retrofitted onto fragmented legacy architectures.
  • Socio-Technical Lens: Balancing technical automation with human capability.

II.C: Socio-Technical Systems & Paradoxes

  • Technical vs. Social: Harmonizing AI-native workflows with human-centric Industry 5.0 and talent development.
  • Digitalization Paradox: Advanced digital tools can inversely affect stakeholder well-being and localized upgrading.
  • System of Systems (SoS): Treating “messy legacy processes” as systemic transitions requiring process hygiene and leadership alignment.
  • Open Innovation: Prioritizing smart platforms and carbon-neutral management to adapt to technical velocity.

II.D: MLP and the Twin Transition

  • Nested Levels: Analyzing transitions through micro-level Niches, meso-level Regimes, and macro-level Landscapes.
  • Exogenous Pressures: EU “Twin Transition” mandates destabilizing stable corporate regimes and rules.
  • Agentic Workflows: Integrating AI with Sustainable Development Goals (SDGs) to democratize innovation flows.
  • Living Laboratory: Moving beyond static maturity toward active interplay between niche innovation and regime stability.

🧩 Section III: Methodology

Dual-Horizon Mixed-Methods Framework

  • Science Mapping: Bibliometric analysis of 979 items to identify regimes.
  • Prospective Design: Applying the ITU ICT-Centric Toolkit for roadmaps.
  • MLP Transition Lens: Tracking niche innovations vs. macro-landscape pressures.

🧩 Section III: Methodology

The ITU ICT-Centric Innovation Ecosystem Toolkit Ecosystem Canvas Alignment

Tool Components Goals in Twin Transition Governance
Stakeholder Engagement (operationalized) Capture common regime needs and value positions.
Ecosystem Canvas (future work) Align niche actors around shared operational manifestos.
Sector Development (future work) Monitor cross-sectoral supply chain and talent flows.

👩‍🏫 Section IV: Findings

Bibliometric Baseline & Specialized Keywords

Bibliometric Indicator Dataset Metrics (1993–2026)
Total Documents (\(N\)) 979 core database publications
Annual Growth Rate 7.23% continuous literature expansion
Unique Author Keywords 2,630 specialized thematic descriptors
International Co-authorship 20.63% cross-border research links

👩‍🏫 Section IV: Findings

Conceptual Network Topology

Fig 1: Conceptual network: keyword co-occurrence visualization

  • Red Cluster: Legacy BPO/offshoring, anchored in risk and performance.
  • Green Cluster: Technical “engine room” — process engineering and optimization.
  • Blue Cluster: Structural maturation — SSCs and accounting maturing into integrated GBS frameworks.
  • Yellow & Purple Clusters: Macro-strategic shift toward digital economy and AI-driven supply chains.

👩‍🏫 Section IV: Findings

Factorial Mapping & The Policy Gap

Fig 2: Factorial Analysis MCA Map

  • High-Density Core: Alignment of cloud computing and process automation.
  • Structural Hole: Isolation of public administration and policy clusters.
  • Conceptual Inertia: Risk-mitigation metrics overshadowing green ICT tools.

👩‍🏫 Section IV: Findings

Thematic Evolution Materialization

Fig 4a

Longitudinal Thematic Evolution Map

Fig 4b

Longitudinal Thematic Evolution Map

Fig 4c

Longitudinal Thematic Evolution Map
  • Early Era (1993–2015): BPO, Business Process Optimization, and SSC dominate — efficiency, cost reduction, task centralization.
  • Middle Era (2016–2020): RPA, performance metrics, and ICT emerge as bridging themes.
  • Modern Horizon (2021–2026): Diversification into Digital Transformation, CSR, process automation, and the digital economy.

👩‍🏫 Section IV: Findings

Strategic Map: Niche Trajectories: Fig 4a-c

Fig 4a: Longitudinal Thematic Evolution Map

Fig 4b: Longitudinal Thematic Evolution Map

Fig 4c: Longitudinal Thematic Evolution Map
  • Motor Themes: Capability-driven GBS, lean orchestration models.
  • Basic Themes: Machine learning, robotic process automation, IT management.
  • Niche Quadrant: ESG metrics, blockchain networks, employee wellness frameworks.

👩‍🏫 Section IV: Findings

Global Research Network & Nodes: Fig 5a-c

Fig 5a: Global Research Network & Nodes

Fig 5b: Global Research Network & Nodes

Fig 5c: Global Research Network & Nodes
  • Trans-Pacific Trajectories: High research links between major economies.
  • Decoupling Realities: Academic collaboration stays highly integrated.
  • Distributed Network: Shifting from single-site spokes to multi-hub setups.

👩‍🏫 Section IV: Findings

The “Middle Power” Airlock Gateways

  • Avoiding Development Traps: Bypassing middle-income constraints through high talent.
  • Geopolitical Cushioning: Insulating value chains from U.S.-China bifurcation.
  • Living Laboratories: Deploying real-world automated compliance workflows.

💡 Section V: Discussion

The Operational Airlock Mechanism

  • Landscape Mediation: Translating macro climate regulations into reality.
  • Process Normalization: Standardizing raw data inputs before AI deployment.
  • Regime Upgrade: Converting corporate policy targets into active workflows.

💡 Section V: Discussion

Stakeholder Engagement Alignment

Fig 6: Operational ITU Stakeholder Canvas
  • Policy Thread: Translating environmental directives into standards.
  • Talent Thread: Coordinating university programs with tech targets.
  • Reward Thread: Linking green financial systems to audit checks.

Fig. 6. Stakeholder Engagement Tool Canvas

💡 Section V: Discussion

Deep-Dive: Reward-Orchestration & Living Lab Threads

  • Reward-Orchestration: Evolves SSC-Finance into Supply Chain Finance via green FinTech, RegTech, and automated auditing.
  • Living Lab: AI worflows: Gives entrepreneurs a sandbox to test AI-native workflows before company-wide rollout.
  • Living Lab: regime-niche game: Alleviates MNCs’ historical information asymmetries, reframing reskilling as a regime-niche strategy.
  • Talent-Innovation: Bridges entrepreneurial demand with academic research; D&I strategies and hybrid work models enable “Middle Power” hubs to capture higher-value delivery.

Fig. 6. Stakeholder Engagement Tool Canvas

💡 Section V: Discussion

Deep-Dive: Reward & Experimentation

  • Green RegTech Integration: Using automated checks to guide sustainable supply actions.
  • Democratizing Innovation: Creating sandbox spaces for AI process tests.
  • Cultural Resilience: Protecting employee well-being amid technical transitions.

Fig. 6. Stakeholder Engagement Tool Canvas

🏁 Section VI: Conclusion

Core Strategic Implications

  • Socio-Technical Governance: Moving beyond isolated technology metrics.
  • Mandatory Process Hygiene: Normalization is an absolute requirement for AI tools.
  • Value Redefinition: Positioning sustainability criteria at the core of performance.

🏁 Section VI: Conclusion

Human-Centric Industry 5.0 Goals

  • Simultaneous Investment: Balancing technology investments with workforce talent development.
  • Co-dependent Workflows: Designing software tools and human work together.
  • Mitigating Disruption: Using targeted training models to manage automation risk.

🏁 Section VI: Conclusion

Future Research Frameworks

  • Supply Chain Control Towers: Expanding GBS roles into material tracing.
  • Product Digital Passports: Integrating automated lifecycle audits.
  • Trustworthy AI & Industrial Data Spaces: Testing federated data networks as regulatory proxies for RegTech innovation.

🏁 Section VI: Conclusion

Strategic Resilience Architecture

  • Navigating Multi-Polarity: Building distributed ecosystem governance models.
  • Sustainable Intelligence: Setting a new global standard for modern operations.
  • Collaborative Inquiry: Thank you. We welcome your questions and partnerships.

🙏 Thank You for Your Attention!

Orchestrating the Twin Transition in Multinational Corporations

Technology Roadmapping for Green and Digital Global Business Services

RS-PO-1B: Innovation Policy, Regulation & Standards,

ICE 32nd Ed.

Han-Teng Liao 0000-0003-1081-5599
Independent Researcher

Karen Ang 0009-0008-5923-0106
Independent Researcher / Infineon