Greg and I have been talking about whether or not innovation needs a purpose. While we agree on many points, we can see two differing views on the question. I will argue that within an organisation, innovation does need a purpose, and here is Greg’s post arguing the other side.
Let’s start by looking at a case study. When Watson and Crick published their paper revealing the structure of DNA in 1953, they close the paper by saying:
It has not escaped our notice that the specific pairing we have postulated immediately suggests a possible copying mechanism for the genetic material.
In their annotated version of the paper, the fantastic Exploratorium in San Francisco says this about Watson and Crick’s statement:
This phrase and the sentence it begins may be one of the biggest understatements in biology. Watson and Crick realized at the time that their work had important scientific implications beyond a “pretty structure.” In this statement, the authors are saying that the base pairing in DNA (adenine links to thymine and guanine to cytosine) provides the mechanism by which genetic information carried in the double helix can be precisely copied. Knowledge of this copying mechanism started a scientific revolution that would lead to, among other advances in molecular biology, the ability to manipulate DNA for genetic engineering and medical research, and to decode the human genome, along with those of the mouse, yeast, fruit fly, and other research organisms.
In many respects, even though these applications were noticeable in 1953, it’s really only been in the past 10-15 years that we’ve started to see a significant economic impact from the discovery of the structure of DNA.
So, was the discovery of the structure of DNA an innovation?
There are two ways to look at this. Some say that it’s not an innovation if there isn’t an economic payoff. Or even more strictly, that without a new product, it’s not innovation. Others say that innovation is driven by discoveries like this – that we must engage in search and discovery activities even though we have no idea what practical applications will arise.
Even though these seem like opposites, you must do both – This is another innovation paradox.
On the one hand, if you want to stay in business, the ideas that you execute need to create value. Then you have to convert that value into something that helps you pay the bills. If you’re not innovating around your core, you are vulnerable to competition from people that are.
So while it’s not true that you’re not innovating if it doesn’t create a new product, it is true that you need to create value with your innovations so that you can generate some sort of return.
When we think about corporate groups that have engaged in pure search and discovery, the two big examples are probably Bell Labs and Xerox PARC. It’s no coincidence that both parent firms effectively had monopolies when they made these investments – they didn’t have to care as much about returns.
The answer to the question: was the discovery of the structure of DNA an innovation? depends a lot on timing. And it raises three important points about managing innovation.
- Innovation is a process. I’ve said before that innovation is actually the process of idea management. Lukas Fittl tackles this issue nicely by talking about the distinction between ideation and execution – what he refers to as the flipping the ideation switch:For our purposes here, ideation is the period when you are doing the searching, which may not have much of a market focus, and execution is when you zero in on building a profitable business model for your idea. Fittl talks about this as a very directed process even in the exploratory state.
- You face uncertainty throughout this entire process. There are a couple of persistent, damaging ideas that pop up here. One is that when you get to the execution phase of an idea, there isn’t any uncertainty anymore. Unfortunately, this is not true. Any time we are working with new ideas, we can never be certain that they will work.Roger Martin addresses this in a great post about strategy and uncertainty:
Contrary to popular opinion, strategy is not about turning uncertainty into certainty. Lots of bureaucratically inclined board members and corporate executives want and expect this to be the case. When reviewing strategies, you can hear them asking for proof that the strategy will be successful.
The reality is that strategy is about making choices under competition and uncertainty. No choice made today can make future uncertainty go away. The best that great strategy can do is shorten the odds of success.Greg has made the point that strategy and innovation are often conflated. In this case, Martin’s comments on strategy do apply to innovation as well.
- The business problem with exploration is that the gap between the discovery and the economic payoff is usually very long. This gap is almost always longer than we expect. Look at the DNA example. Watson and Crick published in 1953, and at the time, they noticed that the idea had commercial potential. But the first biotech firm, Genentech, wasn’t founded until 1976, and their first product didn’t come out until 1982 – nearly 30 years after Watson and Crick’s article!If Watson and Crick had been working for a company in 1953 when they made their discovery, how would it have managed to stay in business until 1982? You’d need a lot of venture capital to support that…
One way to address this is to manage your innovation activities as a portfolio using a 70/20/10 split in your innovation effort. 70% goes to improving your core business with incremental innovations, so that you can continue to stay in business. 20% goes to finding adjacent markets that you can extend into. And 10% goes to blue sky ideas that might change the world, but we just don’t quite know how yet.
Once again, it’s not an either/or question – it’s both/and. We need to be both evolutionary and revolutionary.
However, in practical terms this means that innovation does need to have a purpose. You can do all the discovery that you want, but if you don’t use it to create value, you won’t be in business for long.
Hi Tim,
Thanks for doing this, it was fun!
A few further points I’d like to make:
First, I think that you’re making the Watson & Crick example a bit more simple than it really is. In that case, the structure of DNA wasn’t really the innovation, but the product of an innovative process.
The innovations really were Linus Pauling’s earlier work on identifying complex structures, x-ray crystallography techniques and Watson & Crick’s own physical model building methods that allowed them to discover the structure of DNA.
That discovery then informed a lot more research and innovation activity that led to the biotech industry that really began in the 1970’s. So the cycles are really much shorter than you laid out.
Also, profit driven firms can sustain fairly long cycles. For instance, quantum teleportation was first achieved by IBM Research in 1993 and probably won’t contribute to viable commercial products for another ten years. That’s at least a 30 year cycle!
Further, it seems that some very profit driven concerns, such as Microsoft and Google, seem to be investing more heavily in basic research, not less and it appears that tech research cycles are becoming longer.
Finally, and this is a crucial point, Bell Labs was not only a monopoly, but a quasi-governmental institution. In fact, most of the basic discoveries that drive technology today were a product of the military-industrial complex.
So it seems that government is also an important part of the innovation ecosystem. Even very purpose driven firms, such as Apple, need to be aware of “useless discoveries” as part of the overall innovation process even if they aren’t actively investing in it.
Again, thanks for this. It will be fun to hear what people have to say!
– Greg
Tim,
Another great post! And I appreciate Greg’s note above as well.
A couple of thoughts. When I did some research last year for the technology mapping series (http://scottpropp.com/map-the-future/) I found that there were two fairly repeatable peaks – across a number of technical disruption spaces. For discussion if those peaks are labeled discovery and deployment, it was common to find about three decades between them. Between the two peaks was a down select cycle – in terms of reduction to practice, followed by an intense period of business model experimentation on the up cycle of deployment.
In that context, I’m not surprised that it took as long as it did to get economic value from their discovery.
Hi Tim and Greg – two fascinating articles and some really interesting points. I think there is a big difference between the different phases, which to me should be defined as DISCOVERY, INVENTION and INNOVATION. Discovery is curiosity-driven, conducted almost always by academics, and aimed at answering quite fundamental “why?” questions. The aim is new knowledge. The discovery of the structure of DNA falls squarely in this domain. Watson, Crick and the other often ignored contributors did not have any commercial applications in mind, just the next academic paper and, of course, fame.
Invention then takes new knowledge to identify areas of potential commercial exploitation. There is still no proof that it will make money, just that it is novel. The discovery of the structure of DNA is also not an invention.
So I would argue that invention is the start of the real innovation phase. Of course there will often be overlap between different phases, it’s really a continuum and not fixed boundaries. And as you might guess by now, I don’t think the discovery of DNA is an innovation.
This is not just semantics, it’s about understanding why you’re doing what you’re doing. I agree wholeheartedly that innovation should have a purpose, but so should discovery and invention. If a PARC type group is doing curiosity driven research that’s fine, as long as all the stakeholders expect that as an output. The strategy should be clear, as you outline with the 70/20/10 example. Many companies will have the 20 and 10 components in the invention phase, with the further out 10% aimed at things the company doesn’t yet do, or even know that it wants to do.
For example, many pharma companies fund academics in their curiosity-driven research because it aligns with the new knowledge they believe they need for their drug discovery programs, which lead to inventions, which become innovations.
Kevin
Thanks Kevin. Always great to hear your thoughts!
To be honest, I’ve always been a bit skeptical of the Discover, invention, innovation framework, because I don’t really see how it is helpful.
For instance, it could equally be applied to academic and commercial pursuits. A lot of academic research has no purpose except to discover, but a lot is really just sustaining innovation – building incrementally on what is already known. In much the same way, in commercial pursuits, it’s important to pursue some blind alleys as well as continually having a go-to-market pipeline.
So if you would actually try to apply the discover/invention/innovation framework, you would end up with some sort of nested/hierarchy for a lot of different activities to describe the process of proceeding from initial ideas to go-to-market strategies (which in the academic arena would involve publishing) and even then, so what? I find it hard to see how it would help you operate any better.
I’m much more enthusiastic about the 70/20/10 framework, but feel that it’s more of a resource allocation framework than an operational one. I’m going to lay this out in a future post, once I find time in my posting schedule.
Again, thanks for this. Lots of great points and good food for thought!
– Greg