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Dennis Sherwood takes the model of thermodynamics and welcomes us to the new science of organodynamics.
Dennis Sherwood takes thermodynamics as the model for three laws to extract the best possible work from organisations. Welcome to the new science of organodynamics.
One response to this familiar question is: “The whole is greater than the sum of its parts”, highlighting the fact that a high-performing team delivers a collective outcome greater than its individual members could achieve by themselves. But how does the surplus arise?
It is attributable to a phenomenon illustrated by the sentence: “I went to the bank”, the meaning of which does not reside in any single word such as “went”, but is a property of the sentence as a whole. This is an example of emergence: a property which exists at the level of a well-connected system (the sentence), but does not exist at the level of any of the component parts from which that system is formed (the individual words). A sentence is just one instance of a well-connected emergent system. Others are hurricanes (an emergent property is the shape) and human beings (life).
A further characteristic of a well-connected emergent system is that it is highly ordered: “I went to the bank” is not a random jumble of arbitrary words, but is formed from specifically selected words, grouped together in a deliberate sequence. This is evident in comparison to: “Went bank the I to”, which contains the same words but in a different sequence and is meaningless. Order can be measured by entropy, such that a low number for a system’s entropy corresponds to a high level of order. Conversely, a high entropy implies low order. Well-connected emergent systems are therefore also characterised by low entropy, maintained over time.
My answer to the question: “What are the key characteristics of a high-performing team?” is therefore: “A high-performing team is a group of people brought together in such a way as to form a well-connected system, maintaining low entropy over time, with the emergent result that the team achieves much more than the individuals ever could working by themselves.”
If we wish to build and sustain a high-performing team, we must therefore satisfy two conditions. First, we need to build a well-connected system and second, we must keep the entropy of that system at a low level over time.
This second condition, however, presents a problem: keeping the entropy of any system at a low level over time is, apparently, contrary to a law of physics known as ‘the Second Law of Thermodynamics’. In essence, this law states that the entropy of the universe increases, implying that all ordered systems naturally and spontaneously descend into chaos. It is possible, however, to overcome this law, so creating order out of chaos, but only if energy is continuously pumped into the system of interest. This applies to human beings – the energy comes from our food, and ultimately the sun – and it applies to teams, too. To sustain the order necessary for the continuing high performance of a team, not only must the team members be well-connected, but there must also be an unremitting flow of energy into the team; energy that keeps the team’s entropy low, maintains its order and stops it from degenerating into a chaotic rabble.
Thermodynamics – of which I have just cited the Second Law (of three) – is an important branch of science and engineering. Developed during the 19th century by intellectual giants such as William Thomson (later Lord Kelvin), Max Planck and James Clerk Maxwell, thermodynamics explores the question: how much useful work can you get from an engine?
So, let me now introduce organodynamics, which explores how much useful work can be achieved by an organisation. This, of course, is all about how to build and sustain high-performing teams. As you will see, organodynamics synthesises the somewhat ethereal concepts of well-connected systems, emergence and entropy with the down-to-earth organisational concept of the team. And like thermodynamics, organodynamics centres on three “laws”.
Organisational energy must continuously be created lest the organisation itself be destroyed. That’s what leadership is all about.
In contrast to the First Law of Thermodynamics, which states that physical energy can neither be created nor destroyed, the First Law of Organodynamics states quite the opposite: that organisational energy must continuously be created. For if it isn’t, the organisation will degenerate and fall apart. This therefore throws the spotlight on how fundamentally important it is for energy to be injected into, and continuously to flow through, a team, so as to maintain the order high and the entropy low.
This happens in sport, where the teams on the pitch have energy pumped into them by the cheering crowd (imagine how leaden a game would be if the teams just ran around in an empty stadium). The crowd, of course, is not the only source of energy for the team: there’s the team manager, too and we all know that the most compelling attribute of a great team leader is that person’s ability to make you feel good, to motivate you, to lift you when you feel down, to keep you going when times are tough. Indeed, the very words we use to describe great leaders – “energising”, “exciting”, “dynamic”, “stimulating”, “invigorating” – are all about how great leaders unceasingly inject energy into their teams.
This constant pumping of energy into other people places a huge demand on leaders and explains why leadership is so tiring. It also raises the question: Who pumps energy into the leader?”
With the First Law in mind, here are some pragmatic questions:
Organisations will spontaneously degenerate into chaos and can only be prevented from doing so by ensuring effective connectedness between all the constituent parts of the organisation, with each constituent part voluntarily constraining their behaviour in accordance with the interests of the team.
The Second Law of Organodynamics stresses that, in addition to the energy flow required by the First Law, the maintenance of order – and hence the team’s ability to perform useful work – depends critically on the effective connectedness between the constituent parts of the team and the constraints on individual behaviour.
Connectedness relates primarily to team selection, roles and communication; the issue of constraints recognises that individuals have choice and that in a high-performing team, team players continuously, spontaneously and voluntarily take choices that are to the benefit of the team, not themselves. Just as an engine won’t work if its constituent parts are connected any-old-how, so a team won’t work if its component parts are not well and effectively connected and all acting in a concerted way.
There is an alternative statement of the Second Law of Organodynamics, which is a mirror of the Second Law of Thermodynamics stated in the form: “It is impossible to construct a device which operates in a cycle and has no effect other than performance of useful work and the exchange of heat with a single reservoir”. Accordingly, in organodynamics, we can state: “Not only is it quite possible, it is absolutely inevitable that an organisation will continue to go round in circles, generating increasing amounts of heat, and progressively less useful work, unless the organisation deliberately chooses to do otherwise”!
So, in terms of the Second Law:
Although in science absolute zero temperature cannot be attained, organisations can hit rock bottom: ultimately, organisations end up with the cultures they deserve.
Where the Third Law of Thermodynamics states that the absolute zero of temperature can never be attained, the Third Law of Organodynamics states that the rock bottom of organisational behaviour is all-too-easy to reach.
What happens when someone new joins an organisation? Very quickly, they sense the behaviours that are acceptable and those that are not. For the most part, this causes little tension, but there may be one or two areas where the accepted behaviour within the organisation is in conflict with what the individual feels is the right thing to do. What happens then? I suggest one of three things:
The first option results in the individual conforming. The second and third options have the same result: the dissenting, nonconforming individual leaves the organisation. Over a period of time, therefore, organisations end up with the cultures they deserve, as only those people who tolerate that culture will survive or choose to remain. Everyone else is either fired or resigns. The culture is perpetuated – unless a leader deliberately decides to do something about it. How? By injecting energy; by ensuring appropriate selection and connectedness; and by redesigning the constraints.
So, thinking of the Third Law…
Aficionados of thermodynamics might have come across the so-called “Zeroth Law”, which states: “If two bodies are in thermal equilibrium with a third, then all three bodies are at the same temperature”. Its analogue in organodynamics is: “If two organisations are in equilibrium with a third, then all three organisations are dead”. Stasis is a step on the road to organisational extinction.
Change, evolution and dynamism are essential for survival.
Dennis Sherwood (dennis@silverbulletmachine.com) is managing director of The Silver Bullet Manufacturing Company Limited, which specialises in organisational creativity and innovation (silverbulletmachine.com). He is a Sloan Fellow of London Business School and author of nine books, including Smart Things to Know about Innovation and Creativity (2001) and Seeing the Forest for the Trees – A Manager’s Guide to Applying Systems Thinking (2002)
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