IEB · Session 05 · Exam Preparation

Strategy, Cognition &
Digital Transformation

Core concepts from Gavetti & Rivkin (2007) and Constantiou et al. (2023/2024) — with illustrative figures and likely exam questions.

The Gavetti & Rivkin Framework

The framework links plasticity of elements to firm age and rationality of search mechanisms to industry maturity.

Rationality of search mechanisms → ← Plasticity of elements High plasticity Low rationality Young firm, new industry (local search dominates) High plasticity High rationality Young firm, mature industry (positioning possible) Low plasticity Low rationality Implastic & experiential Low plasticity High rationality Established firm, mature industry typical path Lycos 1995
Fig. 1 — The Assumption Space (adapted from Gavetti & Rivkin, 2007, Fig. 1). The typical trajectory moves from high-plasticity/low-rationality (new industry) toward lower plasticity as rationality rises with industry maturity.
WORLD OF COGNITION Representations Values Heuristics WORLD OF ACTION Activities Stocks Sensors feedback
Fig. 2 — Hierarchy of Strategy Elements. Representations and values shape heuristics, which guide activities and stocks. Sensors relay environmental feedback upward through cognitive lenses.

Industry Maturity & Search Mechanisms

Stage Information Environment Available Search Example
1 · Infant / Post-shock Full structural ignorance; states & priors undefined Local search only Lycos 1995 — no model to follow
2 · Intermediate Cues emerge; winners identifiable Case-based reasoning (analogy, imitation) Lycos adopts "media company" analogy from Time Warner
3 · Mature Stable; cause-and-effect clear Deductive logic from economic principles Lycos board uses scale economics to justify "get big fast"

Constantiou et al. — Digital Transformation Theory

Building on Daft & Weick's (1984) model of organizations as interpretation systems, Constantiou et al. (2023) theorize DT as the progressive replacement of humans by digital technologies in the three core organizational processes: scanning, interpretation, and learning.

TRADITIONAL SCANNING Human data collection Personal contacts & IT INTERPRETATION Shared meaning-making Cognitive maps LEARNING Collective action Theory into practice ↓ Digital Transformation ↓ DIGITALLY TRANSFORMED DIGITAL SCANNING Algorithmic data collection Sensors & behavioral traces Big data aggregation TIGHTLY COUPLED Digital interpretation & digital learning ensemble of algorithms DIGITAL ENACTMENT Nearly autonomous
Fig. 3 — From Human Interpretation Systems to Digital Enactment Systems. In DT, the three processes collapse into a tightly integrated, algorithmically driven loop (adapted from Constantiou et al., 2023, Fig. 2).

The Three Digital Processes

S
Digital Scanning

Sensors and algorithms replace frontline employees in collecting environmental data. Scanning becomes preprogrammed — more precise but narrower. Senior managers must now practice strategic foresight to define what gets scanned.

I
Digital Interpretation

ML systems give meaning to data by uncovering statistical patterns autonomously. Interpretations arrive pre-coded, removing shared human sensemaking. Equivocality is resolved ex ante, not socially in real time.

L
Digital Learning

AI systems act on interpretations autonomously — rule-based or ML-based. Human learning (putting cognitive theories into action) is replaced. Senior managers must pre-imagine the range of possible algorithmic actions.

Digital Enactment Systems

Proposition 3 (Constantiou et al., 2023)

"Digital transformation results in organizations ceasing to be human interpretation systems and becoming digital enactment systems, whereby they not only interpret information about their environments but also digitally enact the environments by creating information nearly autonomously."

In digital enactment, the causal arrow reverses: Instead of the organization's perception of analyzability driving its mode of interaction, the organization's actions (enabled by digital technologies) now shape perceived analyzability. Organizations don't just read the environment — they construct it.

Perceived Analyzability of environment (perception) causes Organizational Action (interpretation mode) TRADITIONAL LOGIC Perceived Analyzability is now a consequence reversed Digital Enactment (algorithmic actions) DIGITAL ENACTMENT LOGIC
Fig. 4 — Ontological reversal. In traditional organizations, perceived analyzability drives action. In digital enactment systems, algorithmic action constructs the perceived environment.

HFT as the Illustrative Case

High-Frequency Trading organizations are the paper's central example, progressing through three historical periods:

1
Analog Trading (1900–1950) — phones & telex; human traders; undirected viewing mode
2
IT-Enabled Trading (1950–2010) — OMS, EMS, DSS; conditioned/discovering mode; humans still interpret
3
HFT / Digital Enactment (2010–) — algorithms scan, interpret & learn in nanoseconds; senior managers only set strategic parameters

Implications for Strategy & Human Roles

📉

Frontline Displacement

Traders, analysts, data collectors replaced by algorithms. Born-digital firms trend toward flat, thin-payroll structures.

🛠

New Professionals

Data scientists and ML developers emerge to build & maintain systems. Human expertise moves from frontline to backroom.

🧭

New Senior Manager Role

Senior managers shift to: data vigilance, scenario-based strategizing, leading algorithm developers, digital experimentation.

⚠️

Residual Equivocality

Managers focus on information that doesn't enter the organization. When things go wrong, the only option is pulling the plug.

AI & Decision Redistribution

Constantiou, Joshi & Stelmaszak (2024) introduce the concept of decision redistribution: AI does not simply eliminate human decision-making — it redistributes it across three interconnected facets.

Decision Redistribution Making Decisions about AI (data, algorithms, governance) Making Decisions with AI (using AI outputs) Implications of AI decisions (identity, strategy, ethics, macro)
Fig. 5 — Integrative Framework of AI and Organizational Decision Making (Constantiou et al., 2024). Decision redistribution is the central dynamic linking all three facets.

Decision Redistribution — Three Scenarios

A
AI in → decisions about AI rise. Zillow had to hire data scientists and make complex decisions about data sourcing after deploying Zestimate.
B
Decisions about AI shape how AI is used. Algorithm design choices constrain future decision-making with AI (e.g., which data Zestimate trained on).
C
Leaving implications to AI = high risk. Zillow's algorithm continued buying houses as market conditions changed — no human oversight corrected the course.
Decision Retention Choosing not to implement AI is also a decision. Organizations may rationally retain human decision-making when they cannot account for the full redistribution AI would cause.

Novo Nordisk × OpenAI — Analytical View

Your synopsis applies the session's frameworks to Novo Nordisk's April 2026 partnership with OpenAI. Here's a structured summary of the key analytical moves:

Framework Application to Novo Nordisk Key Tension
Gavetti & Rivkin Partnership appears evolutionary (efficiency gains) but has a latent positioning dimension if AI accelerates drug discovery in ways rivals cannot match Can they convert efficiency gains into a genuinely different competitive activity before rivals catch up?
Digital Scanning/Interpretation/Learning AI aggregates genomic datasets, clinical trial data, supply chain metrics — replacing fragmented human data work. OpenAI upskilling = managing digital learning Prop. 1b: constrains ability to capture unexpected signals (e.g. pandemic-like shocks)
Decision Redistribution Decisions about data sourcing & algorithm design now critical; scientists shift from doing to validating AI outputs Algorithmic bias in clinical datasets could systematically exclude patient subgroups
AI as Organizing Capability Connectivity across siloed R&D, manufacturing, supply chain. Codependence: scientists train models; models extend analytical reach Emergence: must remain open to unexpected drug-target findings rather than constraining AI to predefined tasks
Zillow Parallel Like Zillow, Novo Nordisk's AI models will be trained on historical data. If exogenous shocks (e.g. new disease variants, supply disruptions) render that history unrepresentative, the models may fail in exactly the ways the Zestimate did — with much higher stakes.
Drug discovery Supply chain AI Decision redistribution Algorithmic bias Positioning vs. evolutionary AI factory Data sovereignty Workforce upskilling

Likely Oral Exam Questions

Click each question to reveal the key points examiners expect you to address.