Edge innovation: a creative approach to revealing the unexpected?
- Edge innovation explores atypical, often neglected research that can lead to major discoveries such as X-rays or the theory of relativity.
- This approach encourages interdisciplinarity, fostering innovative synergies between different areas of research.
- Redirecting resources towards exploratory projects can diversify scientific approaches and reduce the risk of dead ends.
- Valuing productive failures in such research is crucial, as they can open up unexpected new avenues.
- Citizen participation enriches edge innovation by providing new perspectives and facilitating the social acceptance of discoveries.
Edgeinnovation illustrates how investment in original or atypical research can unlock unexpected research avenues and results, opening up new perspectives for technological and scientific development.
The challenges of edge innovation
Edge innovation refers to the strategy of investing in research projects that are off the beaten track and outside the immediate priorities of science and technology. Unlike traditional research focused on clearly defined objectives and direct applications, these projects explore peripheral questions, often speculative, but which can lead to revolutionary discoveries. The importance of this approach lies in its ability to decompartmentalise scientific research and open up new perspectives. By focusing on more unusual areas, researchers can identify novel connections and innovative solutions to complex problems.
The history of science is rich in examples of major discoveries resulting from seemingly marginal research. One of the most famous examples is that of X‑rays, discovered by Wilhelm Conrad Röntgen in 1895 while studying the properties of cathode rays1. This chance discovery revolutionised medicine and physics, demonstrating the enormous potential of exploratory research. Similarly, Albert Einstein’s theory of relativity emerged from his reflections on problems of mechanics and electromagnetism that were not central to the scientific concerns of his time. These examples illustrate how edge innovation can lead to major scientific and technological breakthroughs.
Unconventional fields of research: fertile ground for innovation
An emblematic example of edge innovation is the search for extraterrestrial signals, notably through initiatives such as Berkeley and NASA’s SETI (Search for Extraterrestrial Intelligence) programme2. Although the probability of detecting extraterrestrial signals is uncertain, the technologies and methods developed for this type of research have potential applications in other fields of science and technology. The data processing algorithms and signal detection techniques used by the SETI programme have been adapted to analyse large datasets in the life sciences, climatology and even finance. This cross-disciplinary use of tools and methods is a perfect illustration of the concept of edge innovation.
Investing in unconventional research can also have a significant impact on the development of artificial intelligence (AI). Advances in AI often benefit from discoveries made in seemingly unrelated fields. For example, research in neuroscience has profoundly influenced the neural network models used in AI.
What strategies are needed to facilitate edge innovation?
To maximise the benefits of edge innovation, it is vital to have research managers who are willing to support this approach and to put in place specific strategies to optimise existing resources.
Proposal #1: Encourage interdisciplinary research
Collaboration between different disciplines is essential to foster edge innovation. By bringing together experts from different fields, it is possible to create synergies that enable the discovery of innovative solutions to complex problems3. Collective intelligence feeds on the diversity of viewpoints so that “1 ⊕ 1 = 3” since the intelligence of two people exceeds the sum of their separate intelligences.
Research institutions and universities should promote interdisciplinary projects and provide platforms to facilitate these collaborations. Highlighting proven methodologies for interdisciplinarity can act as a catalyst in the process, improving efficiency and hence results4. Particular attention needs to be paid to the other components of research to involve them in the process and to ensure the community’s support. “Interdisciplinary research is not carried out at the expense of basic research but supports it to reveal its full potential.”
Proposal #2: redeploy existing resources
Rather than having to justify budgets with excessive frequency, it is possible to rationalise and reallocate existing resources to more exploratory projects. For example, by reallocating some of the funds allocated to traditional projects to more unconventional research, it is possible to diversify research portfolios and encourage innovation. This reallocation can be achieved by presenting the results and the performance achieved. In fact, these are often more effective in the long term56, particularly when they enable us to respond to a new field such as the use of artificial intelligence for agriculture, the ecological transition, medicine, etc.
To select projects for funding, it is therefore recommended that a rigorous evaluation grid be put in place, prioritising initiatives with strong potential for disruptive innovation, close alignment with the organisation’s strategic objectives and sufficient technological maturity to ensure their feasibility. This strategic reallocation, by favouring exploratory research projects, offers a formidable lever for stimulating innovation. It will allow for the development of new expertise, pushing back the frontiers of our field and acquiring a sustainable competitive advantage. Although this approach involves the uncertainties inherent in research, the potential benefits in terms of major discoveries and new applications are considerable.
Proposal #3: Make the most of productive failures
Edge innovation often involves a degree of risk, and it is crucial to make the most of productive failures. Failures in these areas can provide valuable information and open up new avenues of research. Creating a culture that values experimentation and accepts failure as an integral part of the scientific process is essential to encourage innovation.
Proposal #4: Rely on citizen participation
Edge innovation can also emerge spontaneously in the event of a major crisis. The Covid-19 pandemic7, major military events or climate change are obvious examples. When the common interests of humanity are at stake, citizens from all walks of life come together to contribute their knowledge, skills and expertise in the service of the general interest.
Edge innovation often involves a degree of risk, and it is crucial to make the most of productive failures.
There are several mechanisms that can be used to encourage citizen participation. For example, co-creation platforms offer a space for dialogue where citizens, researchers and companies can work together to define research issues, co-construct projects and share the results. Another possibility is to organise open ideas competitions. This enables innovative proposals to be collected and emerging talent to be identified. Finally, opening up data is a major way of facilitating the emergence of these collaborative ventures89.
Citizen participation offers major prospects for edge innovation. It brings new research questions to the fore by bringing together the whole of civil society, of which researchers are an active stakeholder. It fosters the cross-fertilisation of ideas and their combination to meet the high expectations of the population and accelerates the adoption of ideas and innovations, facilitating the dissemination of knowledge.
Future prospects
Edge innovation offers an essential perspective for broadening the scope of scientific and technological research. This approach, which involves exploring unconventional or peripheral areas, is proving its worth by opening up avenues of discovery often overlooked by traditional methods. Historical examples show that major breakthroughs, such as the discovery of X‑rays or the theory of relativity, emerged from seemingly marginal research, underlining the importance of supporting such initiatives.
In an increasingly competitive and specialised research environment, edge innovation is proving necessary to stimulate disruptive advances. By encouraging interdisciplinary collaboration, reallocating resources to exploratory projects, and making the most of productive failures, this method makes it possible to diversify approaches and reduce the risk of scientific dead-ends. What’s more, citizen participation can enrich this dynamic, by providing new perspectives and promoting the social acceptance of innovations.
In conclusion, edge innovation is not just an option, but a necessity for research institutions wishing to remain at the cutting edge of scientific and technological discovery. It is an essential complement to traditional approaches, enabling the exploration of uncharted territory and the anticipation of future challenges.