Eric S. Raymond’s October 2026 statement is a forecast, not a demonstrated fact that every proprietary program can already be recovered. His argument is that AI-assisted reverse engineering is weakening the secrecy once provided by distributing compiled software, while server-hosted applications, law, contracts and specialized knowledge still protect parts of the closed-source business model.
What Raymond said
“The end of software secrecy is almost upon us. The death of closed source, and the final triumph of open source.” Raymond posted the statement on October 5, 2026, according to reporting by TechRadar Pro and HDD Law. TechRadar published its account on October 14. Raymond is a veteran software developer associated with the open-source movement; HDD Law identifies him as a co-founder of the Open Source Initiative and the author of The Cathedral and the Bazaar.
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The wording is deliberately absolute. Raymond is presenting a prediction and a provocation about where software development is heading, not reporting a measured industry result. The available coverage provides no controlled benchmark showing that artificial intelligence can reconstruct every commercial application.
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An old DOS game became a test case
Raymond said he asked an AI assistant to decompile Firefighter, an old DOS shareware game. The assistant inferred that the program had been written in Borland Pascal by examining the binary’s data layout. It then generated readable Pascal code with plausible function and variable names. Raymond translated that output into Rust for his heritage-games collection.
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He initially viewed the exercise as a stunt and doubted that the approach would scale. He later learned that people were applying similar techniques to complete AAA games. From those examples he drew the broader conclusion: “If they can be decompiled, anything can be.” That sentence is his extrapolation from reported cases, not evidence that every large commercial title can be reproduced accurately, economically or legally.
What “software secrecy” means here
Raymond is discussing the secrecy advantage created when a company ships only a compiled executable. Users receive machine code rather than the original source, and historically turning that binary back into understandable program logic required specialist tools, substantial time and considerable expertise.
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AI changes the economics of that work. An assistant can help identify compiler patterns, infer data structures, propose names, explain control flow and produce source-like output. Even when the result needs extensive human correction, reducing the time required to understand a binary can make reverse engineering practical for more people.
The Wentworth Report repeats Raymond’s stronger formulation: shipped executables, including firmware images, should be treated as highly transparent once a motivated person can apply a large language model to them. “Transparent” in this context means inspectable and interpretable enough to reveal behavior or guide a reimplementation; it does not necessarily mean a byte-for-byte recovery of the original source.
Why this does not automatically end proprietary software
Server-side code is harder to obtain
Raymond identifies software as a service as a principal refuge. In a SaaS product, the executable normally remains on the vendor’s infrastructure while customers interact through a network connection. A user may be able to observe inputs and outputs, but does not automatically receive the server’s binaries, internal services or deployment environment.
Reverse engineering is not the same as permission
Legal and commercial barriers remain relevant. The legal commentary cited by the reporting points to copyright rules, patents and contracts as constraints on copying or distributing reconstructed code. These protections differ by jurisdiction and by the terms governing a particular product, so technical feasibility should not be treated as legal permission.
Some value lives outside the executable
Continuously changing data, proprietary business rules, operational know-how and access to infrastructure can be as important as code. Rebuilding an interface or an algorithm from a binary does not necessarily recreate the datasets, service reliability, customer relationships or domain expertise that make a product useful.
How the two software models compare
| Question | Locally distributed software | Vendor-hosted software |
|---|---|---|
| Where the executable runs | On the customer’s computer or device | On infrastructure controlled by the vendor |
| Reverse-engineering exposure | A shipped binary can be copied and analyzed; AI may reduce the time and expertise required | Customers can study observable behavior, but the server executable is not normally delivered to them |
| Legal and contractual limits | Copyright, patents, licenses and contracts still apply | The same protections apply, alongside access controls and service terms |
| Dependence on changing data or rules | Some products bundle their logic and data; others rely on updates | Vendors can update code, data and rules continuously behind the service boundary |
| Offline resilience | Can work without a network if designed for offline use | Usually depends on connectivity and continued access to the service |
Can AI really decompile closed-source software?
It can assist with decompilation and program comprehension, as the Firefighter example illustrates. The quality depends on the compiler, optimization settings, available symbols, obfuscation, hardware assumptions and the complexity of the program. Generated names and reconstructed structures are interpretations, not proof that the original developers’ source has been recovered exactly.
The reported AAA examples show that the technique is being attempted at a larger scale. They do not establish a universal capability, a reliable completion rate or a cost comparison with original development. Large programs also contain third-party components, network protocols, content pipelines and constantly changing services that may not be recoverable from one binary.
What the prediction means for developers and buyers
- Developers of desktop and device software: assume that shipped binaries may eventually be inspected more efficiently than before. Protect secrets by keeping credentials and sensitive decision-making off the client, rather than relying only on compilation.
- SaaS providers: server-side execution preserves a stronger secrecy boundary, but APIs, outputs and operational behavior can still reveal valuable information.
- Organizations choosing software: compare not just source availability, but update control, auditability, offline operation, contractual rights, data ownership and dependence on the vendor.
- Open-source projects: Raymond’s thesis suggests that transparent code can become a competitive advantage when users value inspectability, portability and the ability to maintain software independently.
The measured conclusion
Raymond’s quote captures a plausible shift in the cost of understanding proprietary binaries: AI may turn reverse engineering from a niche specialist exercise into a more accessible workflow. But “the death of closed source” remains a forecast. Server-hosted architecture, legal rights, contracts, changing data and hard-to-reproduce domain knowledge all limit what a decompiled program can deliver. The evidence supports treating compiled software as less secret than it once was—not declaring every proprietary product already obsolete.
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