DPI & network bypass. AI safety bypass. If it blocks — we bypass it.
// 01 — what we bypass
If it detects, blocks, or monitors — BypassCore has a solution. These are the systems we specialize in defeating.
Netstat, GetTcpTable, firewall inspection, traffic analysis
BypassCore hides TCP connections, bypasses GetTcpTable/GetTcpTable2, builds ghost networking and shadow channels invisible to all userland monitoring.
Deep packet inspection, VPN detection, proxy blocking
BypassCore makes VPN and proxy traffic undetectable. We evade deep packet inspection, bypass network firewalls, and cloak connections from detection systems.
Log analysis, artifact detection, activity monitoring
We build tools that bypass forensic analysis — activity hiding, log management, artifact control. BypassCore ensures clean, traceless operations.
EAC, BattleEye, Ricochet, Vanguard — bypass & evasion
BypassCore reverse engineers anti-cheat systems and kernel integrity checks. We analyze driver validation, memory scanning, and integrity enforcement to find bypass paths.
// 02 — how we bypass
Our methodology. From reverse engineering the target to delivering an undetected bypass — this is how BypassCore operates.
We disassemble and analyze target protection systems — understanding every detection vector, hook, and check before writing a single line of bypass code.
BypassCore operates at Ring 0 — the kernel level. This gives us control below the detection layer, allowing us to manipulate what protection systems can see.
We build custom evasion techniques tailored to each target. No generic tools — every bypass is engineered specifically for the protection it needs to defeat.
Our solutions are designed to remain undetected over time. Polymorphic code, anti-analysis techniques, and continuous updates keep bypasses alive.
// our tech stack
// 04 — firmware development
System Management Mode implant development for modern Intel and AMD platforms. Operating at ring −2 — below the kernel, below the hypervisor, invisible to every anti-cheat on the market.
Custom EDK2 SMM drivers executing at ring −2 — the highest privilege level on x86, below the OS kernel and all hypervisors. Periodic SMI generation via TCO watchdog and RTC + I/O APIC with configurable intervals from 122 µs to 153 seconds. Production-quality DXE_SMM_DRIVER and DXE_RUNTIME_DRIVER modules with shared communication buffers, EFI protocol publication, and ExitBootServices cleanup.
GEN_MEM SMI traps intercept physical memory reads targeting the SPI flash region at the chipset level. When anti-cheat software scans modified firmware via MMIO, the SMI handler returns the original unmodified bytes — the hardware itself lies. Fully documented register-level analysis confirming 700-series PCH limitations (ESPI_LGIR1 override, no memory trap capability) with fallback to PteHide for virtual reads.
Direct 4-level Windows kernel page table walking from SMM — PML4 → PDPT → PD → PT. PteHide rewrites PTEs mapping hidden flash regions to point at 0xFF-filled pages in normal RAM instead of actual flash content. On-the-fly 2 MB large page splitting into 4 KB tables. Defeats ring-0 memory scanners, PatchGuard, and DSE because SMM operates transparently beneath the OS.
Binary patching of PiSmmCpuDxeSmm — the root SMI dispatcher — directly inside SMRAM while the system is live. MSR-based SMRR boundary discovery (IA32_SMRR_PHYSBASE / PHYS_MASK), PE32 signature scanning at known offsets, CR0.WP disable / re-enable for write-protected memory access. Three fallback scan paths: compatibility SMRAM (0xA0000), TSEG SMRAM (MSRs), and top 16 MB of 32-bit space.
Architectural bypass of BIOS-locked TCO registers using the RTC periodic interrupt routed through the I/O APIC with delivery mode set to SMI. Requires zero PCH SMI enable bits — the SMI is asserted directly by the I/O APIC, completely independent of TCO_LOCK or FSP-S locked registers. Automatic PMBASE discovery across ICH, PCH 5-series, and Sunrise Point+ generations with validated lock detection and fallback logic.
Complete porting analysis covering Intel 700-series PCH (B760, Raptor Lake) and AMD B450 (Promontory FCH, AM4). Documented every register difference, MSR change, SMM save state layout, SPI controller offset, and flash format between platforms. AMD-specific research references Sinkclose (CVE-2023-31315), the ekknod/smm Ryzen implant, and a detailed chain of AMD SMM callout CVEs affecting Zen 1–4.
// targeted hardware platforms
Intel Raptor Lake 13th Gen • 700-series PCH • F17a UEFI firmware • SPI flash modification via CH341A programmer • Full SMM implant integration with Flash Descriptor unlock and FFS volume insertion
Promontory FCH • AM4 socket • PMBASE at MMIO 0xFED80300 • MSR C001_0111–C001_0113 for SMM control • AMD PSP / EFS flash format • Sinkclose (CVE-2023-31315) analysis • Ready for implant porting
// firmware development toolchain
// from ring 0 to ring −2
Traditional kernel anti-cheat bypasses operate at ring 0 — a battleground where detection is a constant arms race. SMM firmware implants shift the fight to ring −2, a privilege tier that anti-cheat software cannot see, cannot scan, and cannot defend against. This is not theoretical — it is built, tested, and running on real hardware.
// 03 — proof we bypass
Open-source and private tools built by BypassCore. Real bypass solutions, actively maintained and undetected.
The foundational SDK powering the entire BypassCore toolchain. Cross-platform hooking engine, memory introspection, PE parsing, and binary analysis primitives. 9 years of continuous development.
Security evasion research framework. Process hiding, memory protection, driver-level stealth, signature analysis, and detection vector mapping for security monitoring systems.
Process injection and memory cloaking research library. Classic injection, APC, thread hijacking, process hollowing, VEH guard page cloaking, module stomping, and PE header wiping.
Windows PatchGuard (KPP) analysis and research toolkit. Context discovery, timer analysis, integrity check mapping, decryption routines, and kernel driver for live analysis.
ETW bypass and telemetry evasion research toolkit. Provider enumeration, trace session manipulation, EtwEventWrite patching, provider unregistration, and telemetry mapping.
Protocol-level traffic obfuscation engine with pluggable transports. DPI evasion, HTTP mimicry, TLS fingerprint spoofing, and traffic analysis resistance. Built in Rust for maximum performance.
Covert C2 communication and channel research framework. DNS tunneling, HTTPS beaconing, named pipe transport, ICMP channels, steganography, and encrypted multi-channel failover.
// contact BypassCore
Need DPI evasion? Stealth networking? Reach out to BypassCore through our secure channels.
PGP encrypted communications preferred • response within 24h