Chapter Seven: Appreciating Systems
âIn addition to organizational systems such as 3M, all of us operate in systems in our everyday livesâfamily systems, ecosystems, and school systems, to name a few. This makes system awarenessâespecially understanding how systems can produce unwanted failuresâa crucial skill in the science of failing well. A systemâs results are less shaped by its individual parts than by how the parts relate to one another. This simple but powerful idea can help you analyze and design various systems in your life to get better results. Later in this chapter Iâll return to how 3M designed a system to generate the right kind of wrong and thereby spawn countless innovations. But first, letâs take a closer look at what it means to think in terms of systems.
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My engineering background had made me a fan of Perrowâs groundbreaking book Normal Accidents, first published in 1984, which had a lasting influence on expertsâ thinking about safety and risk. Perrow focused on how systems, rather than individuals, produce consequential failures. The importance of that distinction cannot be underestimated. Understanding how systems produce failuresâand especially which kinds of systems are especially failure-proneâhelps take blame out of the equation. It also helps us to focus on reducing failure by changing the system rather than by changing or replacing an individual who works in a faulty system.
A system for innovation
How do you increase the chances that a failed adhesive turns into a brilliant product? With a system designed to bring curious risk-takers together. Encourage and celebrate boundary spanning. Provide resources and slack time. Normalize intelligent failure and celebrate pivots. Declare that you want a significant portion of your companyâs revenues (or schoolâs curricula or familyâs activities) to come from new and different products, courses, or experiences. Successful innovation does not come from the lone genius. Importantly, each of these familiar elements of innovation is reinforced by each of the others. The whole is more than the sum of the parts.
âUse Systems Thinking to Change How We Think about Error âŚ
Rely on inquiry
So Morath faced a challenge: How to help people to see and accept their hospitalâs failures? Rather than doubling down on her logicâYou work in a complex error-prone system, donât you see? Things will go wrong!âshe instead invited clinicians to reflect on their experiences that week with their patients, then prompted, âWas everything as safe as you would have liked it to have been?â Her aspirational question opened the floodgates. Most people had been in what Morath called âa health-care situation where something did not go well,â and
once they reflected on the many problems they had noticed, they became eager to talk about what had happened and how they might improveâŚ
New language
Another element of the patient safety system was what Morath called Words to Work Byâa roster of suggested terms designed to help shift mindsets from blaming to learning. Morath substituted neutral-sounding words such as study for the more threatening word investigation, which put people on the defensiveâŚ
SynergyâŚ
As with the system at 3M that supported peopleâs intelligent failures in ways that encouraged product innovation, and the system at Toyota that made quality improvement second nature, Childrenâs Minnesota built a robust learning system that turned everyone into an active participant in patient safety. Morathâs approach reminds us that system design is more than simply coming into an organization and flipping a single switch. Itâs flipping multiple switches understanding how they work as a system.
Understanding Systems to Better Navigate Failure
Appreciating the dynamics of systems is the last of the three competencies for practicing the science of failing well. After self-awareness and situation awareness is system awareness. Mastering system awareness starts with training yourself to look for wholes rather than zooming in, as we naturally do, on the parts. Itâs about expanding your focus, even if briefly, to redraw the boundaries and see a larger whole and the relationships that shape it.
Much of our education and work experience has taught us to diagnose and become experts in parts, shortchanging the value of looking at the relationships that tie them together. We can learn to see and appreciate systems and use this knowledge to reduce preventable failures. Donât forget that appreciating systems helps us see that we are not wholly responsible for all the failures in our vicinity. This is not to let us off the hook for our contributions to failures, but rather to help us see that we are parts of larger systems, with complex relationships, some of which are beyond our ability to predict or control.
System 3 is where you start to find *management jobs â those that are entirely devoted to communication and administration within the organisation. Itâs also where system-level accountability is established; the key activity of the integration and optimization function is to agree the resource bargains with the System I units, and to ensure that they are being kept. And consequently, itâs the first place you might start to look if you think that unaccountability is creeping into the system. Weâll be looking at this a lot, later.
Itâs easy to get confused between systems 2 and 3. Both of them look like theyâre doing the same thing, in making the operations accountable to one another and to the wider organisation. The difference is that System 2 is all about preventing clashes and managing conflicts, while System 3 is concerned with achieving a purpose. On the ground, a useful way of drawing the distinction is to look at the management functions which everyone agrees to be necessary as opposed to those that they complain about.
*Stafford Beer refers to the part of the system responsible for internal organisation as the âmetasystemâ, one of very, very many newly coined jargon words which I am going to attempt to shield you from.