由 Leo Lee 獨立研發之高吞吐資安網關與身分風險情報實驗專案。結合 Native eBPF/XDP 於核心態實施 10Gbps 線速封包早期丟棄,配對用戶態 Go 0-Allocation (0 B/op) 控制面與 L1/L2 微秒級兩階快取架構。
探討「對暗號不亮牌」的隱私盲樣對接,讓機構在不交換用戶明文個資的前提下完成安全特徵比對。
採用「雙重驗證機制」將雜湊碰撞機率降至極低,避免資安過濾器誤判正常用戶的交易行為。
研究「旁路處理與記憶體池優化」,將安檢延遲控制在微秒等級,維持顧客交易順暢無感。
High-performance algorithms, dual-stage zero-trust filtering modules, and zero-allocation Go / C-extension primitives released to the global developer community.
High-throughput C/Rust Zero-Trust identity filtering engine. Implements a dual-stage pipeline combining Counting Bloom Filters with an exact-match fallback hash table (EMF-HT), achieving 0.000% FPR and sub-millisecond lookups within a 91 MB footprint for 10M entries.
Non-blocking asynchronous API gateway decoupling pipeline engineered to eliminate Go GC STW pauses and context switch overhead during 100K+ RPS traffic spikes, maintaining 0 B/op heap allocation.
針對底層記憶體操控、微秒級快取架構與 eBPF/XDP 核心旁路技術之工程研討與專題文章。
Analyzing latency spikes caused by Garbage Collection in high-concurrency microservices. Demonstrates how Go sync.Pool 0-allocation (0 B/op) and C/Rust slab allocators reduce P50 latency to 8~14 µs and P99 tail latency to < 0.5 ms under peak stress.
Architecting a dual-stage L1/L2 in-memory cache pairing Counting Bloom Filters with an Exact-Match Fallback Hash Table (EMF-HT). Eliminates false positives (FPR = 0.000%) while compressing 10,000,000 breach entry lookups to 14 µs P50 within 91 MB RAM.
Deep-dive into Linux kernel drivers (Native XDP), executing 10Gbps (14.88 Mpps) line-rate early packet drop in 11.8 ns per packet. Offloads telemetry via 1:1000 in-kernel adaptive sampling and BPF Ring Buffers with 3.8% CPU usage and < 0.01% queue loss rate.
Independent engineering prototypes, benchmark write-ups, and architectural advisory for high-concurrency infrastructure.
Engineered for digital banks, payment platforms, and high-value transactions with cryptographic fraud suppression and dynamic weight shielding.
Building endpoint identity risk scoring and SOC monitoring platforms with dynamic scalable filtering and global privacy compliance.
Eliminating API gateway concurrency bottlenecks through high-throughput read/write decoupling, async pipeline offloading, and local memory caching.
The IDRI.AI team combines low-level system optimization with advanced cryptography to help enterprises achieve maximum security at extreme scale.
Efficient resource management eliminating garbage collection pauses during high-concurrency spikes.
Offloading heavy risk scoring away from main HTTP loops to maintain sub-10ms response times.
Accelerating frequent identity verification down to microsecond speeds via local memory caches.
Real-time SOC monitoring and threat mitigation against novel volumetric attacks.
[STATUS] IDRI.AI Security Engine Active
[SYSTEM] High Throughput Architecture: OPTIMIZED
[ISO/IEC] Frameworks 29119 & 25010: ALIGNED
[CACHE] Memory Cache Hit Ratio: 99.4% (< 1ms)
[FILTER] Dynamic Filter Engine: RUNNING (100% Protected)
[SHIELD] Volumetric Anomaly Shield: ACTIVE
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>> Realtime Benchmark: 2,000 Concurrent Req
>> Avg Latency: 4.12ms (Target < 10ms PASSED)
Select different runtime workloads to test IDRI's benchmark performance under heavy concurrency.
"In the era of rapid digital transformation and AI integration, the core challenge facing enterprises is balancing Zero-Trust identity security with ultra-high concurrency operations. Traditional security controls introduce massive latency—IDRI was built to eliminate that trade-off."
With deep expertise in distributed computing and low-level cryptography, Leo leads the IDRI.AI engineering team in building microsecond API gateways, scalable filtering shields, and threat response pipelines for top-tier financial and enterprise clients.
Get in touch with Leo Lee for engineering discussions and technical deep-dives.