4 layers85 × 55 mm
Device
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
29 parts2
4 layers35 × 20 mm
Device
jayis1/hacker-devices2Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
- Size
- 35 × 20 mm
- Copper layers
- 4
- Thickness
- 1.6 mm
- Parts
- 12
- Nets
- 61
- Pads
- 56
- Tracks, vias
- 22, 4
- Pours
- 2
- Routed
- Yes
- KiCad
- KiCad 1.0 (file 20240101)
- Created
- 12 Jun 2026
- Updated
- 6 Nov 2026
Overview
Device is an open-source printed circuit board by jayis1, from the jayis1/hacker-devices repository on GitHub. It is a 4-layer board of 35 × 20 mm with 12 parts on 61 nets, routed with 22 tracks and 4 vias.
It is built around the STM32H743VIT6, INA219AIDCN and TPS62162DSG, with the IS42S16160J-7BLI among its other parts. Its parts include 8 ICs and 4 connectors. It belongs with the STM32 and Silicon Labs (EFR32, EFM) boards of this library.
Main components
4
STM32H743VIT6
LQFP-100(14x14)-40℃~+85℃ 1.71V~3.6V 12bit 16bit 1MB 2MB 32 Bit 480MHz 82 ARM Cortex-M7 Built-in FLASH LQFP-100(14x14) Microcontrollers (MCU/MPU/SOC) ROHSSTMicroelectronicsMicrocontrollers (MCU/MPU/SOC)
INA219AIDCN
SOT-23-8-40℃~+125℃ 0.1uV/℃ 100dB 10uV 20uA 300mV~26V 3V~5.5V 700uA Bidirectional detection、Zero drift / auto-zero、Input filter、Power monitoring、Digital output interface ±26V SOT-23-8 Current Sense Amplifiers ROHSTexas InstrumentsCurrent Sense Amplifiers
TPS62162DSG
SON83V-17V 1A Step-Down Converter, High Accuracy, with DCS-Control Output Voltage 3.3VTexas InstrumentsUncategorised
IS42S16160J-7BLI
TFBGA-54(8x8)-40℃~+85℃ 143MHz 256Mbit 3V~3.6V High-speed clock synchronization、Auto precharge、Automatic column address generation、Auto refresh TFBGA-54(8x8) SDRAM ROHSISSISDRAM
README
README.mdHacker Devices — Open Hardware for Security Research
A collection of fully open-source hardware designs for legitimate security research and pentesting. Every device is complete end-to-end: engineering docs, KiCad schematics & PCB layouts, production C/Python firmware, and React Native companion apps. Build it, flash it, run the app, start researching.
What's Inside Every Device
No half-finished reference designs. Each device folder contains the full stack:
| Category | Files | Description |
|---|---|---|
| Engineering Docs | phase1_conceptual_architecture.md → phase4_software_stack.md | 4-phase design process: requirements, BOM & netlists, PCB layout rules, software stack |
| KiCad Schematics | kicad/*.kicad_pro, *.kicad_sch, *.kicad_pcb | Full schematic with real component symbols, net labels, power flags, and board outline with placed footprints |
| C/Python Firmware | firmware/main.c, registers.h, board.h, drivers/, Makefile | Production-quality MCU firmware — init code, drivers with DMA, USB descriptors, wire protocol |
| React Native App | app/App.js, screens/, components/, utils/protocol.js, package.json | Companion mobile app for device control, configuration, real-time status, and data capture |
Design Methodology
Every device follows a rigorous 4-phase process:
| Phase | Document | Contents |
|---|---|---|
| Phase 1 | phase1_conceptual_architecture.md | Purpose, performance targets, constraints, block diagram, bus topology, power domains |
| Phase 2 | phase2_component_selection_schematics.md | BOM with real part numbers, pinouts/MUX tables, decoupling networks, netlists, impedance matching |
| Phase 3 | phase3_pcb_blueprints_layout.md | PCB stackup, routing rules, length matching, via strategy, thermal management, DFM notes |
| Phase 4 | phase4_software_stack.md | MMIO/register defs, clock & GPIO init (production C), critical device driver, device tree, bootloader |
Devices
| # | Device | Status | Description |
|---|---|---|---|
| 1 | wifi-pentest-dongle/ | ✅ Complete | 802.11ax monitor/inject, deauth, PMKID capture |
| 2 | rf-transceiver-tool/ | ✅ Complete | Sub-GHz + 2.4GHz multi-protocol (CC1101 + nRF24) |
| 3 | badusb-injector | ⏳ Queued | HID emulation payload injector, multi-profile |
| 4 | nfc-rfid-cloner | ⏳ Queued | 13.56MHz + 125kHz, Mifare/EM4100 |
| 5 | network-tap-mitm | ⏳ Queued | 2× GbE transparent bridge, packet capture |
| 6 | can-bus-analyzer | ⏳ Queued | OBD-II + CAN-FD, automotive pentest |
| 7 | sdr-keyfob-replay | ⏳ Queued | 433/315MHz keyfob capture & replay |
| 8 | ble-sniffer-spoofer | ⏳ Queued | nRF52, advertisement inject, GATT fuzz |
| 9 | imsi-catcher-detector | ⏳ Queued | LTE/4G SDR analysis |
| 10 | biometric-bypass-toolkit | ⏳ Queued | Fingerprint emulation, RFID clone for access control |
Constraints
- BOM target: Under $100 per device
- Form factor: Portable, USB-powered or battery-operated
- All designs use real, purchasable components with exact part numbers
- KiCad schematics are valid KiCad 7+ format — open them directly
- Firmware is production-quality C — not stubs or pseudocode
- React Native apps have working UI with proper state management and wire protocol matching the firmware
License
| Component | License |
|---|---|
| Hardware design (KiCad) | CERN-OHL-S v2 |
| C firmware & drivers | GPL-2.0 |
| Python tools & scripts | MIT |
| React Native companion apps | MIT |
Parts
12| Qty | Value | Footprint | References |
|---|---|---|---|
| 1 | DS28E07-100 | Package_TO_SOT_SMD:SOT-223-3_TabPin2 | U8 |
| 1 | EFR32BG22C224 | Package_DFNQFN:QFN-32-1EP_5x5mm_P0.5mm_EP3.45x3.45mm | U4 |
| 1 | FPC22_HOST | Connector_FFC-FPC:Hirose_FH12-22S-0.5SH_1x22_P0.5mm_Vertical | J2 |
| 1 | FPC22_SENSOR | Connector_FFC-FPC:Hirose_FH12-22S-0.5SH_1x22_P0.5mm_Vertical | J1 |
| 1 | INA219AIDC | Package_TO_SOT_SMD:SOT-23-8 | U7 |
| 1 | IS42S16160J-7BLI | Package_SO:TSOP-II-54_10.16x22.22mm_P0.8mm | U3 |
| 1 | LIFMD-25 | Package_BGA:caBGA-256_17x17mm_1.0mm | U2 |
| 1 | MP2667 | Package_DFNQFN:QFN-12-1EP_3x3mm_P0.5mm_EP1.7x1.7mm | U5 |
| 1 | MicroSD | Connector_Card:microSD_HC_Hirose_DM3D | J5 |
| 1 | STM32H743VIT6 | Package_QFP:LQFP-100_14x14mm_P0.5mm | U1 |
| 1 | TPS62162 | Package_DFNQFN:VQFN-8-1EP_2x2mm_P0.45mm_EP0.9x0.9mm | U6 |
| 1 | USB-C | Connector_USB:USB_C_Receptacle_GCT_USB4105 | J4 |
More from jayis1/hacker-devices
12- 70 × 40 mm
Silent symphony
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
27 parts2 - 4 layers65 × 30 mm
Chronos phantom
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
26 parts2 - 4 layers70 × 45 mm
Device
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
25 parts2 - 4 layers85 × 24 mm
Trace reaper
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
24 parts2 - 4 layers86 × 55 mm
Device
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
22 parts2 - 4 layers120 × 22 mm
Acoustic phantom
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
20 parts2 - 4 layers80 × 40 mm
Device
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
20 parts2 - 4 layers85 × 54 mm
Rf transceiver tool
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
20 parts2 - 2 layers118 × 68 mm
Device
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
19 parts2 - 4 layers50 × 24 mm
Ghostbus
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
18 parts2 - 4 layers22 × 18 mm
Device
jayis1/hacker-devices
Full-cycle hardware designs for security research devices — each device is a subfolder with its own README, schematics, PCB layout, and software stack
18 parts2
Similar boards
- 6 layers98 × 64 mm
La ecp5
PaulBichl/VibePCB-LA
A 16-channel, 100 MSa/s USB 2.0 HS logic analyzer: a Lattice ECP5 FPGA (CABGA-256 BGA) capturing into a 32 MB SDRAM (54-ball BGA), read out over an FT2232H. 98 x 64 mm, 6 layers.
103 parts - 4 layers
- 4 layers78 × 48 mm
Motherboard rev 3
hpvdt/falcon_motherboard
Firmware and hardware designs for the Falcon motherboard
69 parts - 4 layers42 × 100 mm
LockBox
researchanddesire/assembly-docs
RAD unified assembly docs — ohai.researchanddesire.com
81 parts - 2 layers82 × 56 mm
- 4 layers285 × 160 mm
Pcb a power
meshsat/meshsat-fieldkit
MeshSat field kit hardware: the V1 kits as built, the V2 carrier PCB set for the Peli 1450 and the compact pocket-sized node (KiCad and OpenSCAD sources, generators, release files, build guides).
279 parts4CERN-OHL-S-2.0 - 4 layers81.6 × 88.8 mm
Cheetah MX4-Mini
KaiPereira/Cheetah-MX4-Mini
A powerful yet compact 3D printer motherboard that supports TMC stepsticks, fans, heaters, screens and thermistors
171 parts179 - 4 layers200 × 100 mm
Heteromycin
hasenbanck/heteromycin
A 3D printer board using a powerfull STM32 MCU, TMC5160/TMC2160 driver and a Raspberry Pi or compatible SBC
373 parts40
Questions
How big is the Device PCB?
It measures 35 × 20 mm and has 4 copper layers, 1.6 mm thick.
What parts does the Device use?
12 parts, built around the STM32H743VIT6, INA219AIDCN, TPS62162DSG and IS42S16160J-7BLI. The full list of its parts is on this page, with links to each part's symbol and footprint where PCBKit's library has them.
Where can I download the Device KiCad files?
From the jayis1/hacker-devices repository on GitHub, at the commit this page was made from: the board is aperture-phantom/kicad/device.kicad_pcb. PCBKit opens the board in the browser, with nothing to install.
Can I use the Device design in my own project?
Its repository states no licence, so its author keeps all rights: ask jayis1 before reusing the design.