The Audi AG and the HAW Ingolstadt are working with a mobile manipulator MM-800, already doing test runs under normal production conditions.
The robot is used for picking parts from the storage as part of the production preparation. This project has two main objectives:
This new level of automation is meant to help handling the increasing number of different picking processes in production preparation. The mobile manipulator is almost as flexible as a worker but can be directly linked to the process control system. Its error probability is therefore significantly lower which will reduce costs created by mistakenly selected and assembled parts.
Furthermore the robot relieves the human workers from handling bulky or heavy parts.
An omnidirectional robot tests dishwashers in continuous operation in a lab of Bosch and Siemens Homeappliance. The whole robot was designed and built by Neobotix according to the customer's requirements. It uses four Neobotix Omni-Drive-Modules to maneouvre in its very narrow workspace. A UR10 robot arm from Universal robots is mounted on a vertical lift axis. This enables the robot to operate dishwashers at two different levels.
In order to achieve highest efficiency, the robot operates 24/7. Ceiling mounted conductor rails supply power to the robot and also provide the connection to the safety system of the workspace as well as to the overall control system.
Fabmatics integrates our Omni-Drive-Modules and the robot control software PlatformCtrlinto their mobile manipulators HAP-HERO FAB. These mobile robots are used to automate clean room production processes.
Its omnidirectional drive system enables the robot to move through very narrow corridors inside the factory. A compact robot arm is also integrated, allowing the system to autonomously feed fragile parts such as wafers into different machines.
Nussbaum Technologies develops and installs automatic parking systems for cars. One of those systems employs an omnidirectional mobile platform to fetch cars from a parking lot and bring them to the customers.
Localisation and accurate navigation of this platform, which weighs several tons, is handled by our reliable robot control software PlatformCtrl.
The N24 news studio is on-air since October 2008, using Neobotix hardware. Eight combined camera robot systems are operating in Berlin:
All these camera robots have been especially developed by Neobotix for this application. ArmCtrl is used to control the motion of all axes.
The MT-400 fetches the parts from several roller conveyors and feeds them into the machine's supply buffer. This makes the machine independent from the output rhythm of other production steps and allows it to always run at full capacity.
Hong Kong Applied Science and Technology Research Institute (ASTRI) adopts the Digital and Physical Twins approach in the development of the Collaborative Mobile Manipulator (CMM) based on Neobotix MMO-500.
Digital Simulation is conducted on the Digital Twin of the CMM for System Validation before Physical Execution on its Physical Twin. The Mecanum wheels of the CMM enable the movement in any direction and hence the workspace of the Manipulator is significantly enlarged. In addition, the CMM is equipped with LIDAR sensors, vision systems and an end-effector for conducting autonomous navigation, parking/unparking and pick-and-place in a collaborative human-robot working environment for the support of Smart Factory in the era of Industry 4.0.
This provides HERB with more stability and also, even more important, omnidirectional manoeuvrability. His new Mecanum wheels enable it to instantly move into any direction.
The MPO-500's feature set convinced the scientists: "The MPO-500 is one of the finest omni-directional bases we have seen. It is rugged, customizable, and perfect for navigating tight spaces, and for mobile manipulation."
The mobile robot features a Schunk light weight arm LWA4P. It can be equipped with either a standard parallel gripper or an advanced 3-finger gripper from Robotiq. This makes it a very versatile solution for a wide range of applications.
The 1.5m robot arm can follow a 3D path and explore the most hidden spaces of structures that other robots cannot reach. The omnidirectional base automatically follows the snake-arm.
One of these robot systems is now used by the University of Oxford's Mobile Robotics Group for research.
The Bristol Robotics Laboratory (BRL) is the most comprehensive academic centre for multi-disciplinary robotics research in the UK. It is a collaborative partnership between the University of the West of England (UWE Bristol) and the University of Bristol, and home to a vibrant community of over 150 academics, researchers and industry practitioners.
The Australian research institute CSIRO uses an omnidirectional manipulator MMO-500 for its research in service robotics. The MMO-500 is based on a Mecanum robot MPO-500 with a UR10 robots arm from Universal Robots mounted on top.
The original controller box of the UR10 was integrated. This allows the advanced and intuitive control system of Universal Robots to be used without limitations.
Beside having a completely black cover, the robot also features some additional components like a Neobotix IOBoard and a remote emergency stop system.
Its ability to recharge autonomously at an automatic charging station allows this robot to operate completely without user interaction.
The University Ravensburg-Weingarten also uses an omnidirectional robot MPO-700 as base of a new service robot. The basic platform will be equipped with a vertical lift that carries a light-weight robot arm. Several sensors will enable the robot to analyse its environment. The robot's main task will be in supporting people with physical handicaps.
The Robotics, Vision and Machine Intelligence laboratory of Aalborg University is already using two mobile robots MP-700 for its research activities, developing new solutions for automation and material flow. Their "Little Helper" is equipped with a robot arm from Adept or KUKA and operates fully autonomously.
The omnidirectional MPO-700, which has been individually customised for BioRob, will be equipped with a linear axis and one of BioRob's bionic light weight robot arms. Several cameras and other sensors will also be integrated. The robot will then be used to create high accuracy 3D scans of large objects, e.g. items on display in museums, without the need to move them to special studios.
This robot is a customised omnidirectional robot MPO-700 with a powerful integrated vertical lift unit. The lift can move two KUKA LBR4 robot arms, two grippers, 10kg load and a pan-tilt-head with a complex sensor equipment. Thanks to this function, the robot can manipulate objects on normal table height and can also pick up objects from the ground in front of it.
The vertical axis is strong and rigid enough to handle a load of more than 50kg at a distance of 600mm from the arm flanges.
The LAAS is a department of the French national research organisation CNRS. Its focus is on information technology and complex systems.
By the way:
After the delivery of the MPO-700 in June 2011 there will be two Neobotix robots at the LAAS. We delivered the first one in February 2005 and it is still used daily.
The research project RoboGasInspector will be using a mobile platform MP-500 which was handed over to representatives of the Kassel University on the 3rd of December 2010.
This project is part of the research initiative Autonomik and will be working on methods for autonomous remote detection and localization of hazardous gas leaks in production plants.
The MP-500 will be used as a prototype for tests in the lab. It will be equipped with a variety of different sensor systems.
Four mobile platforms MP-500 were handed to representatives of the Hungarian Szechenyi Istvan University on the 1st of December 2010.
This university is currently building up a new laboratory of automation. The focus of this lab will be on tasks of robot cooperation and interaction.
For this purpose the project partner Nor-Service provided two ABB industrial robot arms which will be working with the mobile platforms.
The official opening ceremony of the new lab was in early 2011.
There are already some videos of these robots available on YouTube. You can get an impression of the ROVIS-System in this video.
On the 22.02.2010 a mobile manipulator MM-500 was handed to the italian Instituto Italiano Di Tecnologia.
Different from all former projects, this time no customisations were required and the robot was produced in the shortest possible time.
This MM-500 SK thus was the first Neobotix robot that was ordered directly "off-the-shelf".
The MM-500 IIT does not only feature a 7DOF LWA3 robot arm made by Schunk and a gripper with quick change flange, but also a completely new force-torque-sensor.
This sensor was also developed by Schunk.
The project ImRoNet focused on human-machine-interaction, especially with teleoperated robots.
Neobotix provided a mobile platform which was equipped with an additional computer, an arm and unique sensor system.
A mobile manipulator MM-500 was also used. This robot had a panel-PC, made by Beckhoff, attached to its arm and is meant to make critical maintenance work easier by providing supporting information via augmented reality.
The final presentation of this project was held at the Automatica 2010. You can find a video of this in our download area.
The aim of the BetoScan project was to develop an autonomous scanner system for detecting and mapping damages on laminated concrete floors such as floors of a multi-storey car park, bridges and industrial floors.
The project started on 1st January 2007 and finished on 31st December 2009. The role of Neobotix in BetoScan was to develop and provide a mobile robot that can successfully navigate through a large area where the lack of unique landmarks effects navigation difficulties.
The robot is waterproof and designed for fast installation with user-friendly user interface. It has high repeat-accuracy which makes it robust and reliable.
The mobile platform is based on the MP-500 and features different modifications to best suit the needs of this complex task.
A large number of companies and research institutes was cooperating for four years to unite the different state-of-the-art modules that have been developed in the field of robotics. The Desire project has build a platform that contains all these modules.
Its basic idea distinguished Desire from other projects. Desire was not meant to achieve a quantum leap in a specialised field of research or solve a single task but to combine all the different modules that have been developed separately and to make them reliable for everyday use.
After the end of this project, the achieved knowledge and techniques will be used by other research projects as a starting point.
Neobotix built the omnidirectional platform and furthermore designed and realised the robot's complete body as well as the carbon fibre cover.
In the INDIGO-Project a mobile robot has been developed, that is capable of natural interaction with humans.
During the project which ran from February 2007 until February 2010 Neobotix cooperated with several partners from all over the world. Besides the Albert-Ludwig Universität Freiburg also the Foundation for Research and Technology - Hellas, the University of Edinburgh, the University of Geneva, the Acapela Group from Belgium and the american Hanson Robotics contributed to the project's success.
Neobotix provided a mobile robot of type ME-600 which was equipped with a special robotic head from hanson robotics.
Together with specially adjusted cameras and microphones and the highly capable software of the other partners it is now possible to interact with this robot like never before.
Neobotix engineered and built the omnidirectional platform for the Care-O-Bot 3 which has been presented to public in June 2008. As supplier for the Fraunhofer IPA Neobotix also build the basic, inner mechanics and electrical system of the robot's body.
The two-axis drives have been developed especially for the IPA and provide almost unlimited movements in the plane due the possibility of rotating every wheel independendly around its vertical axis. A lithium ion battery provides good runtimes despite the large number of drives and computers aboard.
Some other important features are the flexible, soft skin of the robot's movable body and the sensor head with stereo and 3D-camera systems, which can be pointed both forward and backwards. A light weight arm from Schunk with a three finger hand can be used for efficient interaction with the environment.
In the next years the Care-O-Bot 3 will be continously under development to solve both known and new tasks in domestic service robotics.
The new rob@work 2 is working at the Fraunhofer IPA since July 2008. This robot belongs to the follow-up research project of the rob@work which was also based on a mobile platform from Neobotix (see below).
The rob@work 2 is built from a version 3 MP-700 and offers more functions and several improvements in a more compact and appealing design. A second laser scanner now enables the robot to permanently monitor its whole environment without blind spots.
A modern light weight robot arm from Schunk is mounted onto the new platform. This 7-DOF arm is extremely agile and already contains all the required electronics. Without the big electric control cabinet required by older manipulators there is more space on the platform's cargo area to store objects or to mount other application-specific components.
In January 2008 a mobile platform of type MP-700 was shipped to the institute for production at the Aalborg university in Denmark. Equipped with a 6 DOF robot arm Adept Viper s650 the robot will be used for research on the field of mobile manipulation. To allow the industrial robot arm to move autonomously to several work places and be reliably used there the basic platform can dock at an automatic charging station.
The current status of the several research and university projects that use the "Little Helper" can be found under robotics-automation.aau.dk. The first industrial test application and later the full installation are scheduled for late 2009 and 2010.
The objective of the ANSO-project, in which the Commissariat a l'Energie Atomique is working, is to create a software platform for multimedia networks. Additionally the possibilities for physical interactions via the network will be improved.
The mobile robot that was built for this project consists of a mobile platform MP-600 and a 6 DOF manipulator of type ARM from Exact Dynamics.
With this combination the ARM-manipulator, which was originally designed to be mounted on electrical wheel chairs, now can be used under completely new conditions.
Here you can watch a video of this project.
On 17.03.2006 Neobotix delivered a mobile plattform MP-600 to the University of Bremen.
This platform will continue the long row of research projects done by the institute of automation in the field of robotics.
When equipped with an 6 DOF robot arm the platform will be used in research on mobile manipulation.
Since 2003 Neobotix was been participating in the joint research project ASSISTOR sponsored by the BMBF. This project was carried out by Fraunhofer IPA, ELAN, Reis Robotics, Schunk, Sick, Vision&Control and Neobotix.
In the context of mechatronics and robotics the project had the following objectives:
Development of robust mechatronic systems for a direct man-machine interaction
Development of configurable sensor and control systems for a safe man-machine cooperation
Working out the basics for the approval and standardisation of robots in a man-machine interaction
Building up of demonstrators for testing usability and robustness
Neobotix presented the results of its work in the field of mobile robotics with a robot arm in November of 2005.
Neobotix delivered a mobile platform to the Fachhochschule Düsseldorf used at the research project 'Ego Secundus'.
The goal of this project is to develop a new way of communication between people who are far apart.
The platform, a modified MG-400, is exclusively destined for telepresence and does not have a laser scanner. Because of this it is unable to move autonomously.
Only when a user has logged in via the internet, the robot can be moved.
The core-idea of the project MORPHA was to equip intelligent mechatronic systems, particularly robot assistants or service robots, with the ability to communicate, interact and collaborate with human users in a natural and intuitive way.
The use of robots in household applications is driven by different motivations. One of them is the aspect of comfort. More important, however, is the increasing number of households with sick, disabled or aged people that supports the necessity of the application of mobile robots for physical assistance activities in households. Robots are expected to work in the direct living surroundings of people. For this reason, the most natural interaction between people and machines is of the utmost importance.
A robot assistant will be able to carry out simple household activities partly in interaction with people. The activities could include such tasks as, for example, transportation, cleaning or laying a table. The robot has to move in different rooms within an apartment without colliding with people or furniture.
TAMS is an acronym for 'Technische Aspekte Multimodaler Systeme'.
The general purpose of this institute is to develop methods and to implement integrated real-time systems for the acquisition, processing and application of information gathered via multiple channels such as visual input, speech and sound, touch through action, etc.
The research topics include multi-modal control architecture, sensor-based manipulation, robot learning, human perception, man-machine-interaction, computer architecture and VLSI design technologies.
Application areas include service robots, active media, intelligent sensors and advanced nano-manipulation platforms.
The complete automation of sampling and the subsequent sample management in mammalian cell cultivations on a pilot scale is the subject of this work. In order to achieve this goal, a sensor-guided industrial robot arm (platform MP-L655 with a Mitsubishi PA-10 manipulator) is used.
The robot arm is equipped with a hand-camera, a force/torque sensor and an electrical gripper. In addition to the normal laboratory equipment, a computerized automatic sampling station, a pipetting device and a cell counter are also needed. The robot takes a sample tube filled by a sampling device to different machines. The cell density is determined by the cell imaging system. Bar-code scanner and cell counter deliver the off-line data to the device control system.
After processing, off- and on-line data are stored and visualized in the process control system that is connected to a network and a modem. The whole system is controlled by a device control system.
The objective of the project 'Marktorientierte Vorlaufforschung (MaVo)' was the development of methods and products that ensure robustness and flexibility based on artificial intelligence. Moreover, all solutions pursued the objective of reducing unit costs.
Fraunhofer IPA used our MP-700 with a Mitsubishi PA-10 manipulator as a demonstrator for this project. The project rob@work was part of the MaVo project.