Thinking Outside the Bot: How AI Fuels Creativity
Accelerating Discovery: Enhanced Design and Simulation (Part 2 of 5)
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Rick Hamilton
7/16/20255 min read
Enhanced Design & Simulation
From Analysis to Creation: Moving AI Downstream
In Part 1 of this series, we saw how artificial intelligence is increasingly accomplishing relatively sophisticated data analysis and pattern recognition, even for tasks which have traditionally required great domain expertise. These were cases of AI extracting insights from complexity. Each time, as AI accelerated the discovery process, human involvement shifted to the higher-value task of deciding how to apply and leverage the resulting findings. But what happens when you move AI downstream, to assist with designing and implementing new products? Can AI help us explore, generate, and optimize new solutions?
Fortunately, AI is also transforming engineering, architecture, and related fields by providing rapid design iteration capabilities, and by simulating those designs in real-world scenarios. This represents a fundamental shift in how we approach innovation; not by replacing human creativity, but by amplifying it through computational power to explore exhaustive design possibilities at unprecedented speed and scale.
Generative Design Tools and Their Capabilities
AI-driven generative design tools like Autodesk's Fusion 360 and Siemens NX exemplify this transformation by generating thousands of potential designs for structures, aircraft components, or machinery parts. These tools don't simply automate existing design processes; they fundamentally reimagine how design exploration occurs. By leveraging AI and optimization algorithms, we can rapidly iterate through numerous configurations based on constraints such as performance requirements, weight limitations, cost parameters, manufacturing feasibility, and material properties.
Such capabilities enable engineers and architects to explore novel solutions that may not be intuitive or feasible using traditional methods. While human designers often naturally gravitate toward familiar forms and conventional approaches, AI can propose unconventional geometries and material compositions achieving superior performance characteristics. In other words, even if these systems have learned in part from human examples, they are not constrained to only seeing the world in the same way which human designers have previously seen it. Such AI “suggestions” can accelerate product development timelines while optimizing parameters like material utilization and structural efficiency. Airbus's use of AI-driven generative design to create an aircraft partition which was 45% lighter, yet just as strong, demonstrates this potential in action. Such innovative designs provide components which reduce fuel consumption and improve overall aircraft efficiency: outcomes that emerged from exploring design possibilities beyond traditional human intuition.
Consumer Product Innovation: Nike and Adidas
These design impacts extend into consumer products as well, where companies like Nike and Adidas leverage AI to optimize designs based on complex biomechanical principles, advanced materials science, and user feedback analysis. Nike debuted the A.I.R. collection—13 AI-generated, 3D-printed concept sneakers—in Paris just ahead of the 2024 Olympics, and has also introduced the AirImagination web app, which uses AI trained on their archival designs and sketches (referred to as "Air Max DNA") to generate new shoe concepts from user prompts. In addition to providing original aesthetics, AI systems can predict how different materials, geometries, and design configurations will impact real-world performance across diverse usage scenarios. Nike has stated that these generative tools create design concepts in seconds, where the conventional process used to take months.
Simulation: Stress-Testing Without Prototypes
Moving past design, advanced AI-powered simulation capabilities reduce dependencies on physical prototypes, enabling designers to test and refine concepts digitally before committing to expensive manufacturing processes. In other words, while generative design proposes physical attributes, AI can also stress-test those proposed designs. This not only saves time and development costs but also allows for experimentation with unconventional forms and materials that traditional design approaches might overlook. As far back as 2017, Adidas's collaboration with Carbon to create Futurecraft 4D shoes demonstrated this approach, where AI optimized cushioning properties and performance characteristics in ways that might have been prohibitively expensive with traditional prototyping methods. Other examples of advanced simulation include General Motors' use of AI to simulate various automotive components to reduce prototypes and delivery times, as well as the rapid increase in digital twin use in areas as diverse as factory layouts, jet engines, and electric vehicle design. (Digital twins are computer-based representations which can inform real-world behaviors.) In one project, GM redesigned a seat bracket using generative design. The new bracket, a proof of concept, is 40% lighter and 20% stronger than the original part.
The Irreplaceable Role of Human Creativity
Despite these extraordinary capabilities, the role of human innovation remains not just important but essential. AI systems excel at optimization within defined parameters and constraints, but they cannot establish those parameters, understand broader market contexts, or make the intuitive leaps that connect technical possibilities to human needs and desires. The most successful AI design and simulation applications occur when human creativity defines the vision, establishes the objectives, and interprets the results within broader contexts. Human designers bring critical skills to the process: the ability to understand user emotions and cultural nuances, to recognize when technical optimization conflicts with aesthetic or experiential desires, and to make creative decisions that transcend functional considerations. AI is a powerful collaborator that can explore vast solution spaces and identify optimal configurations, but human judgment can best choose from the AI-assisted possibilities, integrate stakeholder perspectives, and ensure that technical outputs serve meaningful human purposes. In ways similar to those explored in Part 1 of our series, the future of design lies not in replacing human creativity with artificial intelligence, but in creating collaborative partnerships where both humans and AI models contribute their respective, unique strengths to achieve innovation that neither could accomplish alone.
As we've seen, AI can play a valuable role in accelerating discovery, in two ways. Firstly, it excels at rapid data analysis and pattern recognition, as we discussed in the last blog post. Secondly, we also see that AI excels at enhanced design and simulation, offering numerous possibilities for human designers to consider, many of which are non-intuitive but which conform to designer-specified constraints on performance, pricing, and visual appearances. The most exciting part is that these tools are just beginning to scratch the surface of what is possible. As more capabilities are embedded into production AI design software, these capabilities will rapidly improve. From that perspective, the world of design may arguably never be as inefficient, unimaginative, or limited as it is today. Those of us in development roles need to learn the capabilities of AI-based design and simulation tools, determine what they can do for us, and leverage them to bring new capabilities and improved performance to our teams, our products, and our customers.
About the Author
With a background in artificial intelligence/machine learning (AI/ML), cloud computing, and internet of things (IoT) technologies, Rick Hamilton is a named inventor on more than 1,060 issued US patents, making him one of the most prolific inventors in world history – just behind Thomas Edison. He has more than 30 years of patent portfolio development and governance experience, and 13 years of portfolio usage and organizational strategy experience. This includes establishing and leading patent strategy for a Fortune 10 healthcare company. He has spoken on artificial intelligence/machine learning, innovation and IP management, cloud computing, and IoT technologies in 32 countries, and has trained thousands of technical and business staff on best invention practices.
Rick can be reached at rick@hamiltonandboss.com with questions or comments.
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