A Laboratory Unit
INVERTA-8 is an all-in-one table-top platform especially built for skill building of industrial users, students at academic institutes, and research labs. It includes a 6-RSS parallel platform HEXA-4 in inverted configuration and an inbuilt controller PC that can easily be programmed for pick-and-place operation. It comes with a fully-featured Graphical User Interface (GUI) that can be used to demonstrate motion in Cartesian workspace interactively through a wireless mouse, and keyboard, or a 6-DoF Joystick. All the runtime parameters like joint angles, end-effector position, homogeneous transformation matrix, etc. can be observed.
Tele Manipulation
It can demonstrate pre-programmed trajectory simulations like a spiral, Lissajous, helical, precession, and Simple Harmonic Motions of its end-effector. Also, it can demonstrate point-to-point motion using standard joint trajectories like cycloidal, quintic, cosine, and cubic. The plot for the joint velocities and accelerations is generated for any motion demonstrations. The end-effector tool position can be set to any point within the workspace which is widely used to demonstrate Tool Centre Point (TCP) Calibration algorithm working and is widely used in any industrial application.
Pick and Place Operation
The programming interface includes the Application Programmers Interface (API) which is built over Python language which is widely accepted as a programming language for robotics research. It comes with a Lab. Manual with almost 10 experiments and a wide range of example codes including Internet of Things (IoT) demonstrations.
With its open architecture, it can be extended for a wide range of research applications.
Technical Specifications |
TECHNICAL SPECIFICATIONS
Mechanical
Type | 6 DOF, Parallel Robot |
Number of axis | 6 |
Pose repeatability | ±0.2 mm (ISO 9283) |
Weight | 25 kg |
Cubical workspace | 60mm × 60mm × 60mm |
Maximum Displacements | X ~ 160mm, Y ~ 160mm, Z ~ 160mm |
Maximum Angular Displacements | Roll ~ 43°, Pitch ~ 25°, Yaw ~ 65° |
Payload | 6 kg (at 12.0V) |
Operating temperature | -5°C to +80°C |
Mounting position | Floor, Ceiling (Inverted -Default), walls, floating |
Size | 500mm × 500mm × 750mm |
Surface finish, paintwork | Aluminium Extruded Channels and Acrylic covers Robot: Stainless Steel |
Material | Robot Body: Stainless Steel, Actuators: Engineering plastic body |
Joint Level Accuracy | 0.088° |
Incremental Motion | 1.0mm along each X, Y, Z direction |
Maximum Velocity | 0.5m/s |
Maximum Joint Torque | 6.0N.m (at 12V) |
Maximum Joint Speed | 378°/second |
Force/Torque Control | Torque control (upto 10 bit precision) at each joint allows end-effector force/torque control |
Sound Level | <50dB |
Top Platform | Modified for more agility and light weight. Provision for mounting sensors and gripper. |
Electrical
Operating Voltage | 12.0V (Included) |
Maximum Current | 25A at Full load |
Standby Current | 600mA |
Connecting Cable | Single 3-Wire cable (Included) |
Actuator Characteristics |
|
Power Supply | 110/220 V |
Software
Supported platforms | PC with Mac or Linux (Ubuntu, Debian, Raspberry Pi, or other distributions.) GUI Supported on Windows 10/11 (License Included) |
Programming Compatibility | MATLAB, Python (Codes Included with the supply), Java, C/C++, C#, LabView, ROS. |
Communication | USB to TTL (Daisychain - Half duplex Asynchronous Serial Communication) |
API Compatibility | Python, ROS |
Included GUI Features |
|
SCOPE OF SUPPLY
- 1 No. all rotary parallel Stewart platform with actuators within the enclosure cell.
- USB to TTL converter for communication (Inbuilt).
- Emergency stop and Power Switch (Inbuilt).
- 3 core, 5m, submersible cable.
- USB Drive with Software, API, Assembly Instructions, User Documentation, Android Application, Videos and Example codes.
- Full customization in terms of hardware and software may be provided (chargeable extra).
- Lab. Manuals for teaching.
- 3D Joystick for Programming and Demonstration
FIELDS OF USE
- As a laboratory apparatus or in classroom for demonstrating parallel robot.
- Positioners: for cameras, solar plates, mirrors, surgical instruments, etc.
- Low frequency vibration compensators or dynamic balancing (needs appropriate sensors).
- Motion platform: e.g. simulators, gaming stations, medical applications, test workbench, etc.
- Torque controlled joints allows it to be used as a haptic feedback device or as an assembly robot.
Get in Touch
Want to get in touch? We’d love to hear from you. Here’s how you can reach us…
Contact Us