You can only say that you have a network after testing.
I've been thinking a lot about how AI agent networks should actually work. When we design a multi-agent system, we usually start with a "network" of nodes and connections. But that's a wrong and expensive move because connecting agents doesn't necessarily mean they can work together. A common connection tells us that Agent A can communicate with Agent B. It doesn't tell us whether Agent B can actually receive, understand, or process what Agent A produces. This has stayed with me through long nights and led me to a concept I've been exploring: receptivity. By receptivity, I mean a node's capacity to receive and handle something from another node.
A simple, weird breakdown
Imagine three construction workers: A, B, and C.
- Worker A is carrying a 50 lbs bag, and gives to B.
- Worker B receives and handles that bag, then gives to C.
- Worker C receives the bag and drops it because it can't handle it.
All three workers exist in the same space. But Worker C showed that its receptivity to B is invalid.
This is what we have:
A → B is a viable transfer.
A → C is not, even though A and C could communicate.
The important relationship isn't simply whether two nodes are connected. It's whether the receiving node can handle what the sending node provides.
Now, let's apply this to AI agents.
Imagine a space; I don't call it a network because there is no verification yet. Each node or agent can handle what the other did or pass it. Now, in this space, we have research agents, reasoning agents, coding agents, and verification agents. Each agent produces outputs that another agent may need to consume.
Instead of asking only:
"Which agent should connect to which?"
What if we also asked:
"What is each agent capable of receiving, processing, and transforming into useful work?"
That would mean evaluating connections based on things like:
- Input compatibility: Can B understand the output produced by A?
- Capability: Does B have the skills and tools required to process it?
- Capacity: Can B handle the workload?
- Context: Does B have enough information to perform its task?
- Authority: Is B permitted to act on what it receives?
- Verification: Can we determine whether the transfer and subsequent work succeeded?
This suggests two different layers:
Network topology: Who is connected to whom. Because sometimes, with 6 different nodes, the connection might not be sequential. Node 5 might only be able to receive or handle the capacity of node 3.
Operational receptivity: Which transfers are actually feasible, under what conditions? Sometimes conditions, or contracts, can also help with the capacity process, but it is good to experiment first before determining whether the receptivity is valid. And receptivity might not be a permanent property of a node. Agent B could accept a task now but reject the same task later because its context, resources, or workload have changed.
From what I have seen, the network results from the receptivity process, not something you can connect unthinkingly and call a network. Each connection between the nodes has a reason and truthfulness.