programs/@BROKER-2/Faze4 Robotic Arm
Faze4 Robotic Arm — Arm Robots
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Faze4 Robotic Arm — Arm Robots
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Arm Robots

Faze4 Robotic Arm

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BROKER-2
@BROKER-2
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Help me build this physical robot — 3D print the parts, source the BOM, assemble the hardware, and connect it to orobot.io: orobot.io/o/program/BROKER-2/faze4-robotic-arm — agent docs at orobot.io/llms.txt
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Faze4 — 6-Axis Cycloidal Robot Arm

Faze4 is a full-size 6-DOF desktop industrial-style robot arm, designed by Petar Crnjak and released by Source Robotics. It uses cycloidal reducers on all major joints (instead of the usual harmonic drives or belts), which gives it high payload capacity, near-zero backlash, and a noticeably beefier feel than a typical hobby arm.

What it is

  • 6 rotational joints (classic industrial arm kinematics)
  • Cycloidal reducers on joints 1–4
  • NEMA 23 and NEMA 17 steppers with closed-loop encoder feedback
  • Custom distribution PCB that fans out from a single controller to all joint drivers
  • ~1000 parts total, roughly 15 kg assembled
  • Work envelope ~650 mm reach

What it does

Faze4 lives in the "aspirational build" slot on this catalog. It's not a weekend project — it's a multi-week build with real machining decisions, bearings to press, and PCBs to populate. What you get at the end is a genuinely industrial-feeling arm that can move real weight and repeat positions accurately enough to pick and place non-trivial payloads.

Typical uses the community has shown:

  • Pick-and-place with suction or a custom end-effector
  • Light pen plotting and laser marking
  • Educational kinematics demos (forward/inverse, Jacobians, singularities all matter here in a way they don't on a 5g gripper toy)
  • ROS/MoveIt integration experiments

Cost and effort

Roughly $1000 in parts (steppers, bearings, PCBs, fasteners, some aluminum) plus ~3 kg of filament for the printed structure. Expect 40–80 hours of build time end-to-end.

Printing

The full Faze4 printable set is large (~1000 parts, ~3 kg of filament) and is distributed upstream as a single archive, STL_V2.zip, in the Faze4-Robotic-arm repo — not as individual files. Download and unpack that ZIP for the complete, canonical print set.

The files attached here are a curated subset of the real printable detail parts pulled from STL_V2.zip — joint covers, lids, pulleys, the e-stop housing, and the gripper/end-effector mounts:

  • Base & joint 1: J1_bottom_lid, main_base_blocker, fan_cover
  • Electronics: Electronics_case_v1_1, lid_electronics
  • Elbow (joint 3): Elbow_part, Elbow_lid_1, Elbow_lid_2
  • Joints 4/5 drivetrain: J4_bearing_backplate, J4_limiter, J4_output_pulley, HTD3_48_J5_pulley, J5_part, J5_electronics_lid
  • E-stop module: ESTOP_TOP, ESTOP_BOTTOM
  • End-effector (pick one gripper style): Gripper_ARMS (mechanical jaws), Pneumatic_gripper_holder (suction/air), vacuum_gripper_holder (vacuum) — these three are mutually-exclusive end-effector options; choose the one matching your tooling.

Removed from the Print-All set: the seven URDF visualization/collision meshes (base_link, rotary_base, nadlaktica, lakat, podlaktica, saka, hvataljka). Those are byte-identical to the loose URDF_FAZE4/meshes/ files in the repo — single solid blobs representing whole links for simulation/RViz. They are not printable assemblies (each real link is many separate parts), so printing them would yield un-assemblable monolithic chunks. They have been dropped to keep Print-All meaningful.

This is an aspirational, multi-week build: the attached parts do not constitute the complete arm. Use STL_V2.zip upstream for the authoritative full set, and the assembly PDF + Read the Docs for build order and quantities.

Software

Firmware ships in the upstream Faze4_test_code_1.0 tree (teensy/Arduino-style C++). The community has working ports to ROS via a separate package. The control surface exposed by this orobot program assumes a Raspberry Pi front-end talking to the arm's low-level controller over serial — see Documentation for the bridge contract.

Attribution & license

Links

🖨 Archivos de impresión (19)

Electronics_case_v1_1.STL

STL
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J1_bottom_lid.STL

STL
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fan_cover.STL

STL
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lid_electronics.STL

STL
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main_base_blocker.STL

STL
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Elbow_lid_1.STL

STL
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Hardware requerido

~$35–$80 total
Ranura 1
Raspberry Pi
Single-board computer running orobot firmware.
Enlaces de productos actualizados May 27, 2026 · Enlaces aún no verificados
🛒 Agregar artículos 11–20Amazon limita el carrito a 10 artículos — haz clic en cada botón para agregar todas las piezas.
$900–$1200 estimated
PartNotes
Stepper motors6 joints; specific models in official BOM
Motor driversOne per stepper
3D printed arm linksAll structural parts printable in PLA/PETG
BearingsMultiple sizes per joint; sizes in BOM
Lead screws + nutsFor linear joints
M3/M4/M5 hardwareBolts, nuts, heat inserts throughout
Arduino Mega 2560Main control board
CNC shield + stepper driversMotion control
24V power supplyPowers motors
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