Uploaded June 2023 | Updated September 2026, 1 hour ago
Watch the full Automate 2023 presentation by Mecademic co-founder and ÉTS professor, Dr. Ilian Bonev, on mastering industrial robot singularities and inverse kinematic configurations to optimize cycle times and robot trajectories.
Professor Bonev breaks down why 6-axis robots encounter wrist, elbow, and shoulder singularities, how Cartesian workspace is divided into 8 configuration subsets (flip/no-flip, elbow-up/down, front/rear), and how crossing singularities unlocks expanded workspaces and smoother motions without buying larger hardware.
⚙️ Key Topics & Educational Insights:
• Kinematic Fundamentals: Inverse kinematics & understanding 8 robot configuration subsets
• Singularity Types: Wrist (5), elbow, and shoulder singularity breakdown
• Workspace Expansion: Crossing singularities to extend linear moves and eliminate dead zones
• Tooling & Adapter Optimization: End-effector design, Euler angle conventions, and 7th-axis integration
• Simulation Tools: Leveraging offline programming (RoboDK) vs. manual hand-guiding limitations
📌 Presentation Chapters:
0:00 Introduction
0:20 Industrial robots need you!
2:59 Singularities of robots arms
7:37 When are singularities a problem?
9:18 Singularities of a six-axis robot arm
12:44 Singularities and configurations
16:45 Workspace and configurations
22:04 Workspace and singularities
25:55 Passing close to singularities
28:01 Crossing singularities
29:24 Choosing the best configuration
32:39 Optimal EOAT design
36:48 Use external "axes"
37:55 The importance of simplicity
43:24 Conclusion
📖 Read our In-Depth Robot Kinematics Tutorial: mecademic.com/insights/academic-tutorials
🌐 Discover Meca500 Micro-Robotics Solutions: mecademic.com/industrial-robots-mecademic/meca500-industrial-robot-arm
#robotoptimizing #Automate2023 #6axisrobot #Meca500
Watch the full Automate 2023 presentation by Mecademic co-founder and ÉTS professor, Dr. Ilian Bonev, on mastering industrial robot singularities and inverse kinematic configurations to optimize cycle times and robot trajectories.
Professor Bonev breaks down why 6-axis robots encounter wrist, elbow, and shoulder singularities, how Cartesian workspace is divided into 8 configuration subsets (flip/no-flip, elbow-up/down, front/rear), and how crossing singularities unlocks expanded workspaces and smoother motions without buying larger hardware.
⚙️ Key Topics & Educational Insights:
• Kinematic Fundamentals: Inverse kinematics & understanding 8 robot configuration subsets
• Singularity Types: Wrist (5), elbow, and shoulder singularity breakdown
• Workspace Expansion: Crossing singularities to extend linear moves and eliminate dead zones
• Tooling & Adapter Optimization: End-effector design, Euler angle conventions, and 7th-axis integration
• Simulation Tools: Leveraging offline programming (RoboDK) vs. manual hand-guiding limitations
📌 Presentation Chapters:
0:00 Introduction
0:20 Industrial robots need you!
2:59 Singularities of robots arms
7:37 When are singularities a problem?
9:18 Singularities of a six-axis robot arm
12:44 Singularities and configurations
16:45 Workspace and configurations
22:04 Workspace and singularities
25:55 Passing close to singularities
28:01 Crossing singularities
29:24 Choosing the best configuration
32:39 Optimal EOAT design
36:48 Use external "axes"
37:55 The importance of simplicity
43:24 Conclusion
📖 Read our In-Depth Robot Kinematics Tutorial: mecademic.com/insights/academic-tutorials
🌐 Discover Meca500 Micro-Robotics Solutions: mecademic.com/industrial-robots-mecademic/meca500-industrial-robot-arm
#robotoptimizing #Automate2023 #6axisrobot #Meca500
![Automated PCB Soldering Cell with Meca500 & MCS500 SCARA | Mecademic
Watch the Meca500 6-axis industrial robot arm and the MCS500 SCARA robot perform an ultra-compact, high-precision automated PCB soldering and handling sequence inside the MicroDASH cell!
Controlled via a Siemens SIMATIC S7-1200 PLC, the cell features the MCS500 SCARA handling board transfers via vacuum gripper, while the Meca500 executes precise soldering joint trajectories with automated wire feeding—all contained within a tight 61x61 cm footprint.
⚙️ Key Application & Cell Features:
• High Precision Soldering: Meca500 executing fine-pitch solder joints with wire feeder
• Board Pick & Place: MCS500 4-axis SCARA robot handling PCB transfers
• PLC Integration: Fully controlled via Siemens S7-1200 PLC
• Ultra-Compact Footprint: Complete multi-robot cell fitting in a 61 x 61 cm enclosure
📌 Chapters:
[00:00] - MicroDASH Multi-Robot Enclosure Overview
[00:07] - MCS500 SCARA Loading PCB into Station
[00:10] - Meca500 Precision PCB Soldering Sequence
[00:26] - Siemens S7-1200 PLC Control & Cell Dimensions (61x61 cm)
[00:36] - Close-Up: Automated Solder Joint Execution
[00:43] - MCS500 Unloading Finished PCB
🌐 Explore the MCS500 SCARA Robot: https://mecademic.com/industrial-robots-mecademic/mcs500-scara-robot/
📩 Request a Demonstration or Consultation: https://www.mecademic.com/contact-us/
#AutomatedPCBsoldering #Meca500 #MCS500 #ElectronicsAssembly #MicroAutomation Automated PCB Soldering Cell with Meca500 & MCS500 SCARA | Mecademic](https://i.ytimg.com/vi/u7dgpXlhHVg/mqdefault.jpg)