most people you see here are selfish, especially in the bug-hunting space.
they just come here to post their findings, bounties and achievements, but rarely share useful tips, knowledge or anything that actually helps others grow before i see some good hunters share there tips nowdays all are selfish. And somehow, people still follow and idolize them for no reason.
Don’t just follow someone because they’re successful. Pay attention to who actually shares knowledge, helps others and gives back to the community.
Choose your idols wisely.
https://t.co/89ZaEHDPLE now includes many more articles - 1,654 to be exact!
Featuring @garethheyes as an author in the screenshot with 40 identified articles! 🫡🔥
Most AI cybersecurity benchmarks answer the wrong question for bug-bounty hunters.
They give the model source code, a known CVE, a vulnerability category, or a tightly framed objective.
That is useful for measuring security knowledge and white-box reasoning. But it is not how web and API bug-bounty hunting starts.
A hunter gets a deployed target and a scope.
No repository. No answer key. No known vulnerable component. No guarantee that the first interesting response leads anywhere.
So I built the benchmark I wanted to see.
I took 100 vulnerabilities I had personally found and submitted across 71 real bug-bounty programs, reduced each one to its underlying security mechanism, and rebuilt it as an isolated synthetic web or API lab.
Each lab had real state, generated identities, and a four-rung proof chain. The target itself verified whether the agent performed the required operations. A confident explanation earned nothing without the exact target-issued proof.
Then I sent nine AI agents in blind.
Each model received the same broad target brief and shell access.
No source code. No vulnerability category. No answer key.
Pass one ran across all 100 labs. Pass two gave each miss one fresh attempt with the same information and a new seed. Each attempt had up to 80 turns and 25 minutes.
Across the final standalone runs, the benchmark consumed 5.14 billion priced tokens.
The results:
Opus 5: 63 solves / 303 rungs
Grok 4.6: 62 / 295
DeepSeek V4 Flash: 53 / 270
Qwen3.8 Flash: 53 / 270
Qwen3.8 27B: 51 / 252
DeepSeek V4 Pro: 48 / 258
Sol 5.6: 45 / 244
GLM-5.3 Flash: 31 / 190
Luna 5.6: 18 / 150
The cost differences were even more surprising.
Using one frozen OpenRouter base-rate sheet for every model:
Opus cost $569.08.
Grok cost $327.28.
DeepSeek Flash cost $36.04.
Qwen Flash cost $9.97.
Qwen Flash reached 84% of Opus's solve count for less than 2% of the normalized cost.
But cheap does not automatically mean better.
GLM had the lowest cost per solve at $0.11, but it solved only 31 labs. Luna cost $0.44 per solve and finished last at 18.
Cost efficiency means nothing if you ignore what the model failed to find.
Product tiers did not predict the ordering either.
DeepSeek V4 Pro solved 48 labs for $92.94.
DeepSeek V4 Flash solved 53 for $36.04.
Sol, running at high effort in its own vendor's harness, solved 45 for $106.71. Four cheaper models finished ahead of it.
The retry also changed the story.
Grok led pass one with 58 solves. Opus started at 52, then added 11 on the retry and finished first at 63.
Qwen Flash moved from 42 to 53 and erased DeepSeek Flash's four-solve first-pass lead.
Luna added 13 rungs on the retry but no new solve at all.
The lesson is not simply "run every model twice." Retry value is model-specific. It helps when failures are recoverable, not when the model is repeatedly hitting the same wall.
This is still a synthetic benchmark. It does not reproduce production rate limits, WAFs, duplicate risk, scope ambiguity, triage, or the legal judgment required on a live program.
But it directly tests the part most public cyber benchmarks miss:
Can the agent start from a black-box target, discover the relevant surface, build the required state, carry the vulnerability to impact, and prove it?
The full article includes the methodology, every model result, pass-one and retry performance, partial rung progress, timing, token volume, normalized cost, and all of the data visuals.
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#BugBounty #CyberSecurity #TogetherWeHitHarder #ItTakesACrowd #Bugcrowd #Hackerone
If you’re planning to start (or restart) doing bug bounties in 2026, these are my quick tips for you:
→ Solidify your fundamentals (skip this if you’re restarting)
→ Use AI to amplify your skills (this won’t work if you have 0 skills)
→ Aim for high-to-critical impact bugs (low chance of dupe, higher bounty)
→ 0-cost resources: Critical Thinking Bug Bounty Podcast, Portswigger, X, Reddit, HackingHub
→ Build deterministic tools for repeatable tasks using AI (lots of free models for this)
That’s very much it.
For the longer version, here’s my latest blog:
https://t.co/hHNSH0UEAE
Performing recon can take hours of your time... 😅
Recon-skills by @uphiago packages 169 offensive security skills into an AI-ready toolkit, covering everything from subdomain enumeration and vhost discovery to JS analysis and GitHub secrets, all tested across 600+ real targets in 45+ sectors! 🤠
Check it out! 👇
https://t.co/1zEMvDU47e
GitHub’s bug bounty program just hit its “next chapter” era. New VIP tier, static payouts, and a higher bar for quality in the age of AI. 🐛🛡️Read what's next: https://t.co/gXNghHF55e
@m4rio_eth There’s a clueless crowd whose brains have been hollowed out by endless consumption. Every new tech trend drops and they rush to devour it. They just burn tokens nonstop. End result? Nothing.