BioMedima

System-thinking at BioMedima

Why the World Needs Systems Thinkers

Specialization taught us to understand the parts. Today's hardest problems live in the connections between them.

A reinforcing loop: specialize, optimize locally, shift costs elsewhere, new problems appear, specialize again. Specialize Optimize locally Shift costs elsewhere New problems appear R
Each fix inside one silo can feed the next problem in another. Meadows would call this a reinforcing loop.

One problem, many owners

Climate

Filed under environment

Also driven by energy, farming, transport, and how we live.

Health

Filed under medicine

Also shaped by food, housing, work, and public policy.

Poverty

Filed under economics

Also tied to schooling and public infrastructure.

Artificial intelligence

Filed under technology

Also reshaping jobs, education, security, and governance.

What is optimal for each part is not necessarily optimal for the whole.

What makes these problems hard

  1. ConnectedPull one lever and others move.
  2. NonlinearA small shock can cascade across countries.
  3. DynamicWhat works today may fail tomorrow.
  4. Side effectsWider roads bring more traffic.
  5. Trade-offsSome choices need values as well as engineering.

Built to perform, or built to last?

« La robustesse, c'est maintenir le système stable malgré les fluctuations, à court terme et à plus long terme. »

Robustness is keeping the system stable despite fluctuations, in the short term and the longer term.

Olivier Hamant, plant biologist at INRAE, interview for Millénaire 3 (2024). His case, made from living systems: plants are robust because they are not efficient.

Performance asksRobustness asks
AimBest result in expected conditionsKeep doing the job when conditions change
Spare capacityWaste to removeMargin to keep
DuplicatesCostBackup, if it fails independently
VarietyStandardizeKeep several ways of doing it
SpeedFaster is betterSome slowness absorbs shocks
HorizonThis quarterThis quarter and the next decade
System-thinkingHow the parts depend on each other.
RobustnessWhat those connections have to survive.
Collective intelligenceWho has to act on it, together.

The system that wins under ideal conditions is often not the one still doing its job when they change.

What a systems thinker does

  1. Sees past disciplinary and organizational boundaries
  2. Looks for the structure behind recurring events
  3. Anticipates feedback and unintended consequences
  4. Puts scientific knowledge next to economic and social knowledge
  5. Weighs competing goals openly
  6. Thinks across short and long time horizons
  7. Keeps margins for what the plan didn't expect
  8. Tests assumptions and changes course when a fix fails

Systems thinkers do not replace specialists. They connect what specialists know.

What has to change around them

Education
Isolated subjectsDepth plus cross-disciplinary learning
Organizations
Functional silosShared outcomes
Leadership
Command and controlCoordinated action
Decisions
Local and short-termSystem-wide and long-term
Measurement
Departmental KPIsEnd-to-end impact
Innovation
Technology firstPeople, processes, and incentives too
Most organizations already know their problems cross departments. The harder question is who in the room can show how the pieces connect, and that is what our screening tries to find.

Where to go next