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In traditional storage thinking, data is like an object that must be placed in a specific location. As long as the location is maintained, the data exists; if the location is lost, the data disappears.
Walrus breaks this logic. It adopts a more radical approach—breaking a complete dataset into fragments. You might see it sliced into 50, 60, or even more pieces, then scattered across various nodes in the network.
Here's the clever part: you don't need to find the complete file. The network does this automatically. As long as you can collect enough fragments from enough nodes—say, 20 or 25 pieces to reconstruct the full data—the system can restore the original information.
This may seem like a technical detail, but it fundamentally changes the concept of storage. Data is no longer a specific object you can point to, but instead becomes a statistical existence.
From another perspective, the standard of existence has also changed. Previously, it was a binary judgment of "exists or not"; now, it becomes a probability problem of "is the proportion sufficient."
What is the biggest advantage of this design? You no longer need to worry about the life or death of individual nodes. The real key is: how many fragments are still retained across the entire network. As long as the overall data is sufficient, losing a few nodes is irrelevant.
But in reality, there is also an unavoidable issue. When the network is still small, with only about a hundred active nodes, the weight of each node is infinitely amplified. Losing 5 nodes might be manageable, but if 50 nodes drop out suddenly, the system's risk will sharply increase.
Therefore, Walrus is not an invincible solution. It essentially uses architectural complexity to exchange for growth potential in network scale.
My view of this system is: in the early stages with a small number of nodes, it functions as a highly fault-tolerant but also highly sensitive system; once the number of nodes climbs into the thousands, its security curve becomes very steep.
This is not a flaw; rather, it is its growth logic. Like any distributed system, scale and security are often intertwined.