Collective Super-Intelligence For Decision-Making | Dr. Louis Rosenberg

 
 
 

📑 Chapters

00:00 Dr. Louis Rosenberg and ThinkScape

02:46 Meeting Others Where They Are

05:52 Swarm Intelligence in Nature

10:41 AI Agent Enhance Group Decision

17:17 Mitigate Dominating Bad Ideas

21:45 AI Agent Facilitate Large Conversations

26:10 Group Thinking and Collective Leadership

29:48 The Limitations of Polls and Surveys

32:41 Deliberation & Empathy in Group Decision

34:22 Joy of Building and Playing with Computers

36:50 Tackling Hard Problems and Building a Team

39:50 Technology-Enhanced Human Future

 

💕 Story Overview

The MAGICademy podcast with Dr. Louis Rosenberg dives into the inspiring idea of boosting group intelligence by tapping into the wisdom of nature! It's all about creating spaces where people can truly connect and make decisions together, just like a school of fish moving in perfect harmony. Forget feeling lost in the crowd—this approach shrinks down conversations into cozy, manageable groups, while using AI to weave together everyone's brilliant ideas.

The goal? To spark empathy, create a judgment-free zone where everyone feels safe to share, and build communities that solve problems together, making sure every voice is heard and valued! It's about unlocking the amazing potential of collective wisdom, enhanced by technology.

MAGICal Insights:

  • Nature inspires enhancing collective decision-making: Examining how biological systems like schools of fish make rapid, intelligent decisions in groups can inform the development of technologies that improve human collaboration and problem-solving.

  • Small group conversations can lead to empathetic connections: When people engage in facilitated group deliberations, they often feel a genuine connection with others, fostering empathy and enabling them to converge on decisions that benefit the whole group.

  • AI-powered platforms can democratize conversations: AI agents can connect smaller groups within a larger collective, enabling large-scale conversations where diverse perspectives are shared anonymously, mitigating the influence of dominant personalities or organizational hierarchies.

 
 

Have you ever wondered how a large of of birds can fly into a therapeutic rhythm in harmony? Or how a school of fish will swim together in sync across a massive space inside the ocean while avoiding predators? No leader coordinates this response. No vote is taken. Yet somehow, this collective makes lightning-fast and life-saving decisions that benefit the entire group toward a goal.

This natural phenomenon—swarm intelligence—offers a profound blueprint for solving one of humanity's most pressing challenges: how large groups can make intelligent decisions from complex challenges together, almost simultaneously.

What is Swarm Intelligence?

"Biological systems have been evolving solutions to this problem for hundreds of millions of years," explains Dr. Louis Rosenberg, "Whether it's schools of fish or flocks of birds or swarms of bees, they all have evolved methods of making really smart, really fast decisions together in groups."

According to the research literature review (Liu & Passino, 2000), at its core, swarm intelligence represents the emergent collective intelligence of groups composed of simple “autonomous agents.” 

Unlike hierarchical systems where commands flow from leaders to followers, each autonomous agent in a swarm operates independently while interacting with its environment, which primarily consists of other nearby autonomous agents.
— Liu & Passino (2000)


This decentralized structure, perfected through evolutionary processes, enables sophisticated collective behavior without centralized control. Reynolds (1987) developed the "boid" model to identify a few basic rules that agents follow: 

  • Avoidance: agents move away from those too close to prevent collisions; 

  • Copy: agents align their direction with the general movement of neighbors; 

  • Center: agents move toward the perceived center of the group to maintain cohesion. 

  • View: where agents reposition when their perception is blocked (Flake, 2000).

swam intelligence

Credit: Reddit


These simple principles—essentially forms of attraction and repulsion between neighbors—create remarkably complex and adaptive collective behaviors. A bird in a flock doesn't receive instructions from a leader bird (since no permanent leader exists), but instead continuously adjusts its position relative to nearby birds. This distributed decision-making allows birds to gain protection from predators (especially those in the middle of the flock) and to effectively search for food by leveraging the collective perception of the entire group, producing intelligent collective responses to complex environmental challenges.

Large Group Communication Challenge

In the podcast, Dr. Louis mentioned the role the fish’s “lateral line” plays as they navigate through turbulent circumstances, such as avoiding predators from multiple directions. According to Kasumyan (2003), among many functions, the lateral line system serves as a sophisticated biological sensor that allows each fish to precisely detect “movement” in water and perceive the “movement” intentions of nearby fish. As a result, the school of fish seems to move in cohesion fast without centralized coordination. 

Fishes have this biological foundation for their collective intelligence. How about humans? 

We face fundamentally different challenges. We communicate mostly by hearing languages and seeing visual signals. Even though we seem to function well in cocktail party situations by skillfully separating our voice from “noises” or direct attention to chosen topics, our ability to deeply process those conversations can be compromised as the group keeps getting bigger. 

According to research, a natural way to process different information effectively in large groups is called Schisming (Egbert, 1997). Schisming describes a process by which a single group conversation naturally splits into multiple smaller conversations, often during social gatherings like parties. This happens when, for example, a group of people talking together gradually divides as subgroups form, each focusing on different topics or interests.


Schisming is a common social phenomenon and is part of how people manage the complexity of group interactions, allowing individuals to participate more actively and meaningfully in discussions that are relevant to them. 

How can AI support this “schisming” process toward effective discussions in large groups, even on a global level?

A New Model for Collective Intelligence

Dr. Louis is exploring a way to collaborate with AI chatbots to power large discussions. The approach first divides large groups into smaller units of a maximum of six members (Bass & Norton, 1951) and harnesses AI chatbots intentionally to connect these small groups into one interconnected discourse system.

These AI chatbots observe conversations in each small group and relay insights between them, allowing information to propagate through the entire system, similar to how it moves through a school of fish. One important note from Dr. Louis is that:

The key thing is that the one thing that we really are careful not to do is that the AI is not giving its own opinions. It’s not making up. It’s not making up answers. It’s not going out and searching the internet for answers.
— Dr. Louis Rosenberg

The AI's function is to bridge communication between all the groups by monitoring conversations in each group and sharing those observations with others. It essentially weaves together human perspectives and insights, enabling the larger collective to engage in an efficient, cohesive dialogue and arrive at more aligned decisions. 

For example, in his study, Rosenberg, Schumann & Mani (2024) conducted with Carnegie Mellon University, a group of people took the IQ test on their own, and they got about 46% of the answers right. A group of 35 people took IQ tests together using this swarm intelligence structure and got about 81% of the answers right.

"It was able to turn this group of people into, to perform at an intelligence level that was not just better than the average person, it was better than every person in the group," Dr. Louis explained.

When we try to harness the large group intelligence to solve complex challenges, intelligence is not the only criterion. The best solution can appear not as the most intelligent but more thoughtful and inclusive. 

Toward Collective Superintelligence

Unlike surveys, where no one asks for more questions, participants in these swarm-like deliberations often want to continue the collaborative experience.

"People really, we're social spaces. We want to be connected in these large groups. We've been promised social media as a tool that connects people, but social media really makes a lot of people feel isolated... But when you really do bring groups together and they can deliberate, they're having conversations, they feel empathy for the other participants in their group."

As artificial intelligence advances toward potential superhuman capabilities, this nature-inspired approach offers an alternative path: a collective superintelligence that enhances collective human thinking while preserving human values.

The risk is we don’t know if a superintelligent AI will share our interests, or will share our values, or will share our morals; but if we can build a superintelligence that’s based on lots of people, then we know it will inherently be human.
— Dr. Louis Rosenberg

As we look toward an uncertain technological future, nature's time-tested solutions for collective decision-making remind us that true intelligence may not reside in any single mind—human or artificial—but in the connections between them. This vision moves beyond current technologies toward systems that could potentially connect millions of people in meaningful deliberation, addressing our greatest challenges—from climate change to poverty.


Reference

  • Bass, B. M., & Norton, F. T. M. (1951). Group size and leaderless discussions. Journal of Applied Psychology, 35(6), 397.

  • Egbert, M. M. (1997). Schisming: The collaborative transformation from a single conversation to multiple conversations. Research on Language and Social Interaction, 30(1), 1-51.

  • Flake, G. W. (2000). The computational beauty of nature: Computer explorations of fractals, chaos, complex systems, and adaptation. MIT Press.

  • Kasumyan, A. O. (2003). The lateral line in fish: structure, function, and role in behavior. Journal of Ichthyology, 43(2), S175.

  • Liu, Y., & Passino, K. M. (2000). Swarm intelligence: Literature overview. Department of electrical engineering, the Ohio State University.

  • McDermott, J. H. (2009). The cocktail party problem. Current Biology, 19(22), R1024-R1027.

  • Reynolds, C. W. (1987, August). Flocks, herds, and schools: A distributed behavioral model. In Proceedings of the 14th annual conference on Computer graphics and interactive techniques (pp. 25-34).

  • Rosenberg, L., Willcox, G., Schumann, H., & Mani, G. (2024). Towards Collective Superintelligence: Amplifying Group IQ using Conversational Swarms. arXiv preprint arXiv:2401.15109.

Note: In the podcast, Dr. Louis mentioned the Cocktail Party Problem to refer to the challenge to process multiple conversations at the same time in large groups. However, the original research (McDermott, 2009) was focused on how humans are able to “tune in” to different conversations selectively in a gathering scenario and how difficult it is for machines to replicate the same process. We decided to use an alternative research on “Schisming“ to deliver what Dr. Louis was trying to convey.

 
 
 
 

Louis’ MAGIC

Louis Rosenberg's "magic" lies in his approach to solving complex problems using the power of collective intelligence. Inspired by swarm behavior in nature, he aims to create digital spaces where large groups can tackle challenges more effectively than individuals. He is aiming to help people tackle complex problems that might otherwise prove insurmountable, ultimately leading to more holistic, well-rounded solutions that capture the wisdom of the entire group.

Connect with Guest

Louis Rosenberg, PhD, is a VR/AR pioneer and AI researcher with 30+ years of experience, starting at NASA and the U.S. Air Force, where he created the first mixed reality system. He founded Immersion Corporation (an early VR company) and Outland Research an (AR firm acquired by Google). Currently, he leads Thinkscape, focused on collective superintelligence. A Stanford PhD and former professor, Rosenberg holds 300+ patents and co-published "Our Next Reality."

https://www.thinkscape.ai/

https://www.amazon.com/Our-Next-Reality-AI-powered-Metaverse/dp/1399812246

 
 

Credits & Revisions:

  • Guest: Dr. Louis Rosenberg

  • Story Writer/Editor: Dr. Jiani Wu

  • AI Partner: Perplexity, Claude

  • Initial Publication: April 17, 2025

 

Disclaimer:

  • AI technologies are harnessed to create initial content derived from genuine conversations. Human re-creation & review are used to ensure accuracy, relevance & quality.

Previous
Previous

Embodied Gamification Beyond Points | Dr. Karl Kapp

Next
Next

Wheel of Belonging For Deep Empathy | Naomi Clare Crellin