Robot Arm Training Kit

Description

Robot Arm Training Kit

Experiment Content :

The robot arm production cell should consist of a rugged stepper motor-controlled 3 degrees of freedom arm bolted to a base plate and supplied with an activity mat that provides a range of exercises to replicate an industrial robot arm.
The instructional guide should include worksheets in pendant, G code, API, and microcontroller programming, sensors and actuators, kinematics, and more.
The user can connect the robot arm production cell to their hardware platform, such as Windows PC, Android mobile, or Raspberry Pi/Linux device.
They can then program using various programming IDEs, including Flow Code, App Inventor, C++, VB, C#, Python, LabVIEW, or their own industrial PLC.

The connection should be made through Bluetooth or Wi-Fi, enabling the system to be used as part of a remote lab.
With base, shoulder, and elbow rotation and a functional gripper, the arm delivers fast, accurate, and repeatable movement. The stepper motor-driven arm achieves an accuracy of 0.04 degrees per step and <0.5mm XYZ.
The kit should include several colored counters, which the arm can move to different locations within the work cell for studying pick-and-place and sorting technology.

Learning Objectives:
Robot construction and geometry
Workspace planning
Simple robot arm movement
Robot arm pendant programming
Robot arm G code programming
High-level programming with any of Flow Code,

BASIC, LabVIEW, Matlab, Python, App Inventor, C++, C#, etc., using API
Robotic sensors
Kinematics and robot geometry
Microcontroller programming for robotics
Controlling robots with PLCs using CAN bus (two-wire) or MODbus (Wi-Fi connection)
Robot manufacturing cells

Worksheet Exercises:
Technician Level:
Investigating the workspace
Pendant programming
G code programming

Production Engineer Level:
Starting API programming
Simple production
Sorting & pick-and-place

Robot Designer Level:
Kinematics calculations
Microcontroller programming
At the Technician Level, the kit focuses on teaching about robot arms and workspaces.
It emphasizes understanding the advantages and limitations of working with robots and planning simple robot activities, preparing students for using commercial robots in the workplace.
At the Production Engineer Level, students begin using high-level programming languages to program robot work cells.
This allows the development of more functional work cells and provides significant advantages when designing complex production lines.
The All Code robot supports various programming languages and platforms, from App Inventor on mobile phones to LabVIEW on PCs.
At the Robot Designer Level, the kit aims to give students interested in mechatronic system design the opportunity to program the robot arm for base-level functions, which can then be leveraged by high-level programming languages.

Included Items:
Robot Arm Cell: A rugged servo-controlled 3 degrees of freedom arm bolted to a base plate and mat.
Corresponding Curriculum Hardware: Includes a ds PIC microcontroller with a combo board (16 switches, 16 LEDs, 2-line 16-character LCD, quad 7-segment display, and sensors), a color sensor board, and a Bluetooth board from the E-blocks range
Software: Supplied with a full Flow Code simulation, enabling students to develop, simulate, and download programs to the robot.
Flow Code is compatible with most E-blocks add-ons.

Accessories : 
Connecting Wire: 1 set.
Power Cord.
User Manual: 1 Set

Others :
Installation, Testing, and Training.
Warranty: 01(One) Year
Origin: China.
Manufacturing: Assemble in Bangladesh.