Robotics & Mechatronics


Manoeuvring agricultural robots with 2D laser scanners

Third Quarter 2019 Robotics & Mechatronics

How can we harness modern technology in a way that will allow people to collaborate with business even more intelligently, efficiently and sustainably in the future? The solution is 2D laser scanners on robots. SICK has applied 2D laser scanners to crop robots in order to assist a scientific project at Wageningen University and Research Centre.

How do you navigate agricultural robots through a field? The major challenge of this application can be found not only in the wide variety of crops out there, but also in the fact that crop rows are neither completely straight nor all the same width. Now, Wageningen University and Research Centre has developed a solution that uses SICK Automation’s LMS111 2D laser scanner.

Precision agriculture

Precision agriculture is on the rise but what does it mean? It is a practice that marks a move away from the model of subjecting every field to a standard treatment and instead takes a semi-tailored approach that considers the requirements of each crop. Custom sowing, fertilisation, pesticide application and disease control have the potential to not only save money, but also reduce the impact on the environment.

However, the more efficient benefits that precision agriculture brings are unfortunately not yet enough to outweigh the performance of the large, fast farm machinery that saves significant quantities of manpower.

Recently, however, a solution to this problem has been introduced in the form of small agricultural robots that are able to work in fields 24 hours a day, slowing down or stopping as the situation demands, and operating almost entirely without human input.

Navigation without GPS

A good navigation system is one of the fundamental requirements for using agricultural robots successfully. The system must be able to account for deviations in the shape and size of crops, crooked rows of differing widths, as well as other irregularities.

Standard GPS systems are not up to the job. For this reason, the Wageningen University and Research Centre developed a navigation process in which robots would be guided not by a GPS function, but instead by an LMS111 2D laser scanner from SICK Automation.

The LMS111 2D laser scanners collect raw data and then filter the information needed out of this. A whole range of practical tests were performed during the growing season to check whether the system was functioning as it should. The results proved that it is indeed a reliable solution for navigating crop areas cultivated using conventional methods.

Summing up, Dr Frits van Evert from Wageningen University and Research Centre states: “We have invested a great deal of time and energy in this project. Just recently, our efforts put us in a position to publish our findings in a leading scientific journal. I would therefore like to express my sincere thanks to SICK for providing us with the laser scanner for our research.”

For more information contact Mark Madeley, SICK Automation Southern Africa, +27 10 060 0550, mark.madeley@sickautomation.co.za, www.sick.com



Credit(s)



Share this article:
Share via emailShare via LinkedInPrint this page

Further reading:

Robot with air-water actuators has fluid motion
Fourth Quarter 2019 , Editor's Choice, Robotics & Mechatronics
Hydraulics and pneumatics are widely used for power transmission: hydraulics for moving heavy loads with highly controlled motion, and pneumatics for lighter loads and rapid, repetitive motions. Many ...

Read more...
Underwater robot with a unique fin
Third Quarter 2019, Festo , Editor's Choice, Robotics & Mechatronics
      Swimming like the natural model The longitudinal fins of the polyclad and the cuttlefish extend from the head to the tail along their backs, their undersides or the two sides of their torsos. To ...

Read more...
The future of collaborative robots
Third Quarter 2019, Omron Electronics , Robotics & Mechatronics
Factories worldwide are dealing with the challenges of manufacturing a wide variety of low volume products to meet customer demands, as well as shorter product life cycles and labour shortage issues. ...

Read more...
Industry 5.0 – the best of both worlds
2nd Quarter 2019, Cobots , Editor's Choice, Robotics & Mechatronics
The convergence of robot capabilities and human skills.

Read more...
Pneumatic robotics meets artificial intelligence
2nd Quarter 2019, Festo , Editor's Choice, Robotics & Mechatronics
Festo’s pneumatic robot hand BionicSoftHand, combined with the BionicSoftArm, a pneumatic lightweight robot, shows that future concepts are suitable for human-robot collaboration.

Read more...
V-lock system and co-operative robots
2nd Quarter 2019, Metal Work Pneumatic South Africa , Robotics & Mechatronics
Metal Work has developed applications for the automation of the assembly process together with producers of co-operative robots.

Read more...
A bionic flying fox
1st Quarter 2019, Festo , Editor's Choice, Robotics & Mechatronics
Festo has for years been developing research platforms where the basic technical principles are derived from nature.

Read more...
New Scara robot family
1st Quarter 2019, Omron Electronics , Robotics & Mechatronics
Omron is introducing a new line of Scara robots, boasting a sleek design and enhanced performance.

Read more...
Smart sensors for smart factories
3rd Quarter 2018, SICK Automation Southern Africa , Other technologies
Parts of the so-called ‘smart factory’ are already reality, and many processes and functions between information and operations spheres are becoming increasingly coordinated. At the centre of implementing ...

Read more...
Festo’s human-robot collaboration with artificial intelligence
2nd Quarter 2018, Festo , Editor's Choice, Robotics & Mechatronics
By means of intelligent workplaces capable of learning, such as the BionicWorkplace, and the use of multifunctional tools, collaboration between humans and machines will be even more intuitive, simple and efficient in future.

Read more...