Festo and MassRobotics are Leading the Global Nurturing of Healthcare Robotics Innovation

The Festo-MassRobotics Healthcare Robotics Startup Catalyst program celebrates the milestones achieved by the program’s four selected global startups at the Healthcare Robotics Engineering Forum. Key life sciences and robotics speakers to lead the event.

The successful Healthcare Robotics Startup Catalyst program came to an end on April 7th, 2022. The concluding ceremony will be held at the Healthcare Robotics Engineering Forum, Boston Convention and Exhibition Center, on May 11, 2022. The event includes an impressive line-up of speakers: ​​Fady Saad, Co-founder & Vice President of Strategic Partnerships at MassRobotics; Alfons Riek, Vice President of Technology and Innovation at Festo; Kendalle Burlin O’Connell, President & Chief Operating Officer at MassBio; Kenn Turner, President and CEO at Mass Life Sciences Center; and Brian Johnson, President at MassMedic. All four selected startup companies, Kinarm (Canada), Assistive Technology Development Inc. (United States), Eureka Robotics (Singapore), and Bionomous (Switzerland ) will, in turn, promote their companies, along with their products and service offerings. They will also be demonstrating their technologies on the event’s expo floor.

In October 2021, MassRobotics, Festo, and other key players in healthcare robotics, launched a Startup Catalyst Program to advance healthcare robotics companies around the world, by providing the networking opportunities, guidance, and resources they need to grow and succeed. The aim of the program was to connect healthcare robotics startups with customers, investors, suppliers, marketing, and overall support. The program focused on startups in the areas of clinical care, public safety, laboratory, supply chain automation, out-of-hospital care, quality of life, as well as continuity of work and education, and training and support for healthcare professionals.

More than 30 companies applied from all over the world, and the selection committee invited four to join in the program. The participating startups completed impressive milestones, as detailed below:

  • Eureka Robotics develops and commercializes cutting-edge robotics and artificial intelligence (AI) technologies to automate high-accuracy, high-agility tasks. Eureka is currently completing fundraising rounds in Japan through connections provided by program mentors. Eureka was introduced to MassRobotics partner, Mitsubishi Electric, and signed a global partnership with Mitsubishi as a platinum partner. The program helped the company’s leadership to explore attractive applications in surgical lenses manufacturing technology, which is an extension to its focus on traditional manufacturing.
  • Bionomous provides laboratory equipment to automate the screening, sorting, and pipetting of miniature biological entities for more ethical and faster research in life science. CEO Frank Bonnet reports that with the aid of the Catalyst Program, Bionomous was able to run a pilot program in the US, leading to the company’s first sales outside Europe. This convinced Bionomous to expand into the US market and set up offices in the MassRobotics space in Boston. Bonnet emphasized the importance of the program’s mentors, who connected them to key industry leaders to open possibilities for future partnerships.
  • Assistive Technology Development Inc. is an American startup dedicated to at-home physical therapy solutions that are operable at a low cost and always accessible to rural patients and those who need closer monitoring for recovery. The company came into the program with three goals: 1) begin its first pilot study in a clinical setting; 2) downsize the actuation unit to a wearable form, and 3) raise capital. CEO Todd Roberts reports that with help from the program, the company has completed the first two milestones and is making progress on the third. It will begin phase I of a pilot study with UCHealth, a not-for-profit health care system, headquartered in Aurora, Colorado, on April 25th, allowing the company to present preliminary results at the keynote event at the Healthcare Conference. The study will assess the early clinical efficacy and collect patient and clinician feedback. Assistive’s actuation unit has been downsized by 70%, from a large, wall-powered, benchtop system to a wearable, battery-powered system that will enable the company to complete the pilot. Finally, Assistive is in the process of raising capital and has begun diligence with two firms.
  • Kinarm uses robotic arms to provide an objective assessment method to identify, measure, and track cognitive motor or sensory impairments resulting from injury or disease. Kinarm worked with assigned mentors from the robotics ecosystem who provided introductions to industry leaders who responded with “jaw-dropping, you-can-do-that?” exclamations, reports ​​Anne Vivian-Scott, CEO. Vivian-Scott was also introduced to experienced healthcare robotics leaders who will collaboratively aid Kinarm as the company scales its solutions. Vivian-Scott adds, “What we gained was not specific knowledge that can be encoded into our product, but direction. Quite frankly, most other programs are not ‘sufficiently vested’ in the participant’s business/opportunity to be able to offer such feedback.”

“I am grateful to Festo’s pioneering work to support our efforts to find global disrupting applications and startups in such a human-care field like healthcare, including life science, biotech, and medical devices,” said Fady Saad of MassRobotics.

 “I am impressed with the quality of applications we received, and the unique structure of the program that allowed us to select such innovative companies and match them with world-class advisors,” said Festo’s Alfons Riek. “Certainly, we are excited about the  networking opportunities opened to these companies and to presenting them to the world as great examples of the power of utilizing robotics in healthcare.”

MassRobotics, Festo, and additional corporations plan to launch the second version of the program by July 2022 to build on the programs’ amazing momentum and impact.

ABOUT MassRobotics: MassRobotics is the result of the collective work of a group of engineers, rocket scientists, and entrepreneurs with a shared vision to create an innovation hub and startup cluster focused on the needs of the robotics and IoT community. MassRobotics’ mission is to help create and scale the next generation of successful robotics and connected devices companies by providing entrepreneurs and innovative robotics/automation startups with the workspace and resources they need to develop, prototype, test, and commercialize their products and solutions. See www.massrobotics.org for details.

About Festo: Festo is a global player and an independent family-owned company with headquarters in Esslingen am Neckar, Germany. Festo has set standards in industrial automation technology and technical education ever since its establishment, thereby making a contribution to the sustainable development of the environment, the economy, and society. The company supplies pneumatic and electrical automation technology to 300,000 customers of factory and process automation in over 35 industries. The LifeTech sector with medical technology and laboratory automation is becoming increasingly important. The products and services are available in 176 countries. With about 20,000 employees in over 250 branch offices in 61 countries worldwide, Festo achieved a turnover of around €2.84 billion in 2020. Each year around 8 % of this turnover is invested in research and development. In this learning company, 1.5 % of turnover is invested in basic and further training. Festo Didactic SE is a leading provider of technical education and training and offers its customers worldwide comprehensive digital and physical learning solutions in the industrial environment.

Large laundry

Intelligent robotics for laundries closes automation gap

The textile and garment industry is facing major challenges with current supply chain and energy issues. The future recovery is also threatened by factors that hinder production, such as labour and equipment shortages, which put them under additional pressure. The competitiveness of the industry, especially in a global context, depends on how affected companies respond to these framework conditions. One solution is to move the production of clothing back to Europe in an economically viable way. Shorter transport routes and the associated significant savings in transport costs and greenhouse gases speak in favour of this. On the other hand, the related higher wage costs and the prevailing shortage of skilled workers in this country must be compensated. The latter requires further automation of textile processing. The German deep-tech start-up sewts GmbH from Munich has focused on the great potential that lies in this task. It develops solutions with the help of which robots – similar to humans – anticipate how a textile will behave and adapt their movement accordingly.

The German deep-tech start-up sewts GmbH from Munich has focused on the great potential that lies in this task. It develops solutions with the help of which robots – similar to humans – anticipate how a textile will behave and adapt their movement accordingly. In the first step, sewts has set its sights on an application for large industrial laundries. With a system that uses both 2D and 3D cameras from IDS Imaging Development Systems GmbH, the young entrepreneurs are automating one of the last remaining manual steps in large-scale industrial laundries, the unfolding process. Although 90% of the process steps in industrial washing are already automated, the remaining manual operations account for 30% of labour costs. The potential savings through automation are therefore enormous at this point.

Application

It is true that industrial laundries already operate in a highly automated environment to handle the large volumes of laundry. Among other things, the folding of laundry is done by machines. However, each of these machines usually requires an employee to manually spread out the laundry and feed it without creases. This monotonous and strenuous loading of the folding machines has a disproportionate effect on personnel costs. In addition, qualified workforce is difficult to find, which often has an impact on the capacity utilisation and thus the profitability of industrial laundries. The seasonal nature of the business also requires a high degree of flexibility. sewts makes IDS cameras the image processing components of a new type of intelligent system whose technology can now be used to automate individual steps, such as sorting dirty textiles or inserting laundry into folding machines.

„The particular challenge here is the malleability of the textiles,“ explains Tim Doerks, co-founder and CTO. While the automation of the processing of solid materials, such as metals, is comparatively unproblematic with the help of robotics and AI solutions, available software solutions and conventional image processing often still have their limits when it comes to easily deformable materials. Accordingly, commercially available robots and gripping systems have so far only been able to perform such simple operations as gripping a towel or piece of clothing inadequately. But the sewts system

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Teledyne FLIR Introduces Hadron 640R Dual Thermal-Visible Camera for Unmanned Systems

GOLETA, Calif. and ORLANDO, Fla. ― Teledyne FLIR, part of Teledyne Technologies Incorporated, today announced the release of its high-performance Hadron 640R combined radiometric thermal and visible dual camera module. The Hadron 640R design is optimized for integration into unmanned aircraft systems (UAS), unmanned ground vehicles (UGV), robotic platforms, and emerging AI-ready applications where battery life and run time are mission critical.

The 640 x 512 resolution Boson longwave infrared (LWIR) thermal camera inside the Hadron 640R can see through total darkness, smoke, most fog, glare, and provide temperature measurements for every pixel in the scene. The addition of the high definition 64 MP visible camera enables the Hadron 640R to provide both thermal and visible imagery compatible with today’s on-device processors for AI and machine-learning applications at the edge.

“The Hadron 640R provides integrators the opportunity to deploy a high-performance dual-camera module into a variety of unmanned form factors from UAS to UGV thanks to its incredibly small size, weight, and power requirement,” said Michael Walters, vice president product management, Teledyne FLIR. “It is designed to maximize efficiency and its IP-54 rating protects the module from intrusion of dust and water from the outside environment.”

The Hadron 640R reduces development costs and time-to-market for integrators and original equipment manufacturer (OEM) product developers by offering a complete system through a single supplier, Teledyne FLIR. This includes offering drivers for market-leading processors from NVIDIA, Qualcomm, and more, plus industry-leading integration support and service from a support team of experts. It also offers flexible 60 Hz video output via USB or MIPI compatibility. Hadron 640R is a dual use product and is classified under US Department of Commerce jurisdiction.

The Teledyne FLIR Hadron 640R is available for purchase globally from Teledyne FLIR and its authorized dealers. To learn more or to purchase, visit www.flir.com/hadron640r.

For an exclusive in-person first look at the Hadron 640R, please visit booth #2107 at AUVSI Xponential, April 26-28, 2022, in Orlando, Florida.

About Teledyne FLIR
Teledyne FLIR, a Teledyne Technologies company, is a world leader in intelligent sensing solutions for defense and industrial applications with approximately 4,000 employees worldwide. Founded in 1978, the company creates advanced technologies to help professionals make better, faster decisions that save lives and livelihoods. For more information, please visit www.teledyneflir.com or follow @flir.

About Teledyne Technologies
Teledyne Technologies is a leading provider of sophisticated digital imaging products and software, instrumentation, aerospace and defense electronics, and engineered systems. Teledyne’s operations are primarily located in the United States, the United Kingdom, Canada, and Western and Northern Europe. For more information, visit Teledyne’s website at www.teledyne.com.

Nürnberger Unternehmen isento stellt humanoiden Roboter zum Selberbauen vor

pib – der humanoide Roboter aus dem 3D-Drucker

Nürnberg, 26.04.2022 +++ „Ein humanoider Roboter für alle, entwickelt von allen.“ Diese Vision hat das Nürnberger Unternehmen isento. Dr. Jürgen Baier und sein Team haben dafür das Projekt pib.rocks ins Leben gerufen. pib steht für printable intelligent bot und ist ein humanoider Roboter, den jede:r mit Hilfe eines 3D-Druckers selbst bauen und mitentwickeln kann.

Roboter – Helfer oder Zerstörer?

Wer kennt sie nicht? Terminator, I,Robot und alle Roboter, die sich aufgemacht haben, in Kinofilmen dieser Welt die Menschheit auszulöschen. Gleichzeitig fasziniert, aber auch besorgt, sitzt man vor der Leinwand und fragt sich, ob es wohl wirklich dazu kommen wird.

Roboter werden in den nächsten Jahren deutliche gesellschaftliche Veränderungen mit sich bringen. Diese können aber auch sehr positiv sein. Heute schon drehen in vielen Haushalten Saug- und Mähroboter ihre Runden und nehmen so manche lästige Aufgabe ab.

Wie wäre es denn da mit einem humanoiden Roboter als Helfer des Alltags, der uns mehr Zeit verschafft, um uns mit den angenehmen Dingen des Lebens zu beschäftigen? Genau diese Lücke möchte pib besetzen und schließen.

Die Entstehung von pib

Alles begann mit einer Masterarbeit und einem Roboterarm, der das Greifen lernen sollte. Daraus entstand die Idee ein Projekt zu starten, in dem jede:r die Möglichkeit hat, ohne Vorkenntnisse und zu vergleichsweise geringen Kosten, einen eigenen humanoiden Roboter zu bauen. Es wird lediglich ein 3D-Drucker, etwas Werkzeug und einige extra Bauteile wie Schrauben oder eine Kamera benötigt.

Über die Webseite pib.rocks kann man sich dann alle Druckdaten herunterladen, die Teile mit dem 3D-Drucker ausdrucken und mit den verfügbaren Schritt-für-Schritt-Anleitungen aufbauen.

Mitmachen ist erwünscht

Da pib quasi noch in den Kinderschuhen steckt, soll der Roboter mit Hilfe einer Community gemeinsam zur Bestform gebracht werden. Hierzu kann man sich in Foren und Gruppen austauschen oder gleich die Entwicklung mit beeinflussen. Wer Ideen zur Weiterentwicklung hat, kann diese über das webbasierte CAD-Programm einbringen und braucht dafür nichts weiter als Phantasie und Enthusiasmus.

„Wir wissen, dass diese Aufgabe riesig ist und nicht in einzelnen Händen liegen kann und sollte. Gemeinsam mit einer starken Community möchten wir daher alle einladen, die Zukunft mit uns zu gestalten“, so Dr. Jürgen Baier, der sich schon seit einiger Zeit mit den Themen Robotik, 3D-Druck und Künstlicher Intelligenz beschäftigt.

Ziel ist es, die bestmögliche Version von pib zu erschaffen. Interessierte sind herzlich eingeladen, Teil von www.pib.rocks zu werden. +++

An innovative tracked mobile robot for research and agricultural applications

Guest Article by Robo-dyne

Thanks to the recent innovations in electronics and mechatronics, the use of mobile robots and manipulators is becoming popular mostly in smart factories where robotic platforms are used to move heavy loads and for the storage of goods.

One of the questions that arise when developing a new mobile robot is: continuous tracks or wheels? When implementing a new industrial robotics application, it can be very difficult to correctly choose between wheels and tracks when you build a robot because each locomotion system provides different performances and outputs. The most important features to consider when you have to design a locomotion system are the traction, the driving system, for example, Ackermann or skid-steering, the maximum ground pressure and the suspension system.

If it is necessary to minimize the ground pressure, then it is necessary to choose a solution based on tracks since they are well suitable for soft surfaces. On the other side, wheels have a significant advantage in steering compared to tracks and this can be translated into a good manoeuvrability for the wheels. Robo-dyne is a robotics company that provides tracked and wheeled robots that can be customized depending on the final requirements; this is particularly useful for all that companies that need to develop high-level applications based on a mobile robotic platform and do not will to invest money and time to build the mobile base because they aim to focus on the final application.

Robo-dyne designed MaXXII-S which is the first electric mobile robot with skid-steering and rubber tracks powered by AGM Batteries and able to use an innovative undercarriage configuration which includes a large rear wheel and a couple of two smaller front idle wheels pointing forward. This configuration allows the robot to be able to keep its balance when additional tools, i.e., lawn mowers unit, weed cutter, rotary hoes, are mounted on its rear side and it can also overcome obstacles greater than the ⅔ of the diameter of the rear wheel since the upper front wheel leans on it providing area for extra grip. MaXXII-S is open source and runs with ROS and C++ libraries in order to support researchers all over the world to develop their industrial applications.

The center idle wheels provide a better pressure distribution on the ground. A passive suspension system is used to minimize the vibrations over the main frame caused by the tracks-terrain interactions. In particular, MaXXII-S adopts a set of three shock absorbers with preload adjustment in addition to the possibility to change the elastic coefficient in order to better adapt the system configuration depending on the terrain features. This electric skid-steering tracked mobile robot and its undercarriage is already available on the market finding use in a vast range of agricultural applications, such as plant monitoring or weed cutting, and also for industrial use to move goods in warehouses with uneven ground as also reported on the manufacturer’s official website robo-dyne.com.

Das Start-Up LoCo CORP. möchte mit Roboterbausätzen  europaweit Schüler:innen für MINT-Themen begeistern

Zaragoza, 21. April 2022 LoCo CORP. gründete sich an der Universität von  Zaragoza als Antwort auf den Mangel an fortschrittlichen und gleichzeitig  erschwinglichen Robotiklösungen für Lernzwecke. Das Start-Up begann 2021 mit der  Entwicklung erster Roboterbausätze für den Unterricht. Zu den zentralen  Lerninhalten gehören zum Beispiel Themen wie Programmierung, Mechanik, Logik  und Design. Vor wenigen Wochen stellte das Unternehmen dann die ersten  Lernroboter vor: NOCTIS und AUREL. 

Mit NOCTIS und AUREL können Technikinteressierte erste Erfahrungen mit dem Bauen,  Programmieren und Steuern von Robotern sammeln. © LoCo CORP.

LoCo CORP. arbeitet bereits mit Bildungs- und Kulturzentren in Zaragoza zusammen. Die Einrichtungen konnten ihren Schülern mithilfe der Bausätze eine  neuartige Lernerfahrung ermöglichen, da die Roboter die Schüler:innen spielerisch  an technische Themen heran führen. Parallel dazu hat LoCo CORP. einen Großteil  seines Kapitals in die Entwicklung, Erprobung und Validierung einer eigenen Serie  von Robotern investiert.  

„Die Entwicklung von Lernrobotern ist keine leichte Aufgabe: Es geht um weit mehr als nur die reine Technik. Es kann sehr frustrierend sein sich technisches Wissen  anzueignen. Wenn ein Projekt funktioniert, ist das sehr lohnend, allerdings muss man  in der Regel viel Zeit und Mühe in den Prozess investieren. Wir wollen uns abheben,  indem wir unseren Robotern eine fantasievolle Rahmengeschichte geben, die junge Roboterfans zusätzlich motivieren soll.“, sagt Manuel Bernal Lecina, Gründer von  LoCo CORP. 

Viele autodidaktische Bastler (auch Maker genannt) zitieren in ihren Projekten  beliebte Strömungen der Popkultur. Auch deshalb hat sich LoCo CORP. dazu  entschlossen sich nicht nur auf die Entwicklung der Roboterbausätze zu  beschränken, sondern diese auch in ein eigenes fiktives Universum einzubetten – das „LoCoVerse“. Dabei handelt es sich um ein pädagogisches Ökosystem voller  Geschichten, Kurse, Tutorials, Tipps und Unterhaltung. 

Dazu Manuel Bernal Lecina, Gründer von LoCo CORP.: „Wir wollen qualitativ  hochwertige Inhalte bereitstellen, die junge Leute für MINT-Themen begeistern. So  fördern wir die Ausbildung angehender Ingenieur:innen und Wissenschaftler:innen.“ 

Das spanische Unternehmen möchte in Europa, wo es ein großes  Wachstumspotenzial gibt, zu einer festen Größe bei der Ausbildung von MINT interessierten Menschen werden und so die Bildungsziele von Familien und Schulen unterstützen. 

Weiterführende Links: 

Web: http://www.lococorp.org 

Kickstarter: https://bit.ly/3uUdOla 

Instagram: https://www.instagram.com/lococorp/ 

TikTok: https://www.tiktok.com/@thisrobotisdancing

Potenziale KI-gestützter Robotik für die Industrie

Künstliche Intelligenz (KI) gilt als Schlüsseltechnologie und birgt enormes wirtschaftliches Potenzial. Doch ein Blick in deutsche Produktionshallen zeigt noch ein anderes Bild: Lediglich 6,8 Prozent der Unternehmen aus den Bereichen Maschinenbau und Elektrotechnik setzen KI-Technologien ein (Stand 2019). Dabei birgt KI gerade für das produzierende Gewerbe zahlreiche Potenziale.

Künstliche Intelligenz ist ein Überbegriff, der den Ansatz beschreibt, mit Maschinen Probleme zu lösen und menschliche Intelligenz zu imitieren. Dabei spielt insbesondere ein Teilbereich, das Machine Learning (Maschinelles Lernen), in Unternehmen und Produktionen eine entscheidende Rolle. Machine Learning bedeutet, dass ein System aus Beispielen lernt und diese nach der Lernphase verallgemeinern kann.

In der Produktion kommt Machine Learning beispielsweise im Bereich Predictive Analytics zum Einsatz. Dort wird KI als Teil von Vorhersagemodellen zur Überwachung und Wartung von Produktionsanlagen eingesetzt, um frühzeitig auf kritische Zustände reagieren zu können.

Auch das Wissensmanagement greift für die Auswertung von internen Informationen und Daten auf Machine Learning zurück. Daten von Fertigungslinien, Lieferketten, aber auch von einzelnen Produkten werden für Unternehmensprozesse, die Produktentwicklung und neue Geschäftsmodelle ausgewertet. Ohne den Einsatz von KI wäre eine Analyse aufgrund der schieren Datenmenge nicht möglich.

Mit KI und Robotik Handarbeitsplätze automatisieren

Machine Learning, häufig in Kombination mit Machine Vision, kommt auch in den Bereichen Robotik und Automatisierung, Sensorik und bei fahrerlosen Transportsystemen zum Einsatz. Für die Fertigung ist dabei das Zusammenspiel von KI und Robotik ein wichtiger Schlüssel für die Zukunft.

KI-Produkte, wie beispielsweise Robotersteuerungen, ermöglichen es unter anderem, Handarbeitsplätze zu automatisieren. Ein nicht zu vernachlässigender Vorteil, denn Arbeitskräfte sind rar und der Mangel verschärft sich in den Jahren weiter, wie der Deutsche Industrie- und Handelskammertag (DIHK) prognostiziert. Übernehmen Roboter auch Aufgaben, für die es bisher die Flexibilität eines Menschen brauchte, sorgt das für die Entlastung der Stammbelegschaft, eine Auslastung der Maschinen und sichert auf lange Sicht die Wettbewerbsfähigkeit.

Robuster Umgang mit Varianzen

KI-Steuerungen wie MIRAI von Micropsi Industries ergänzen die native Steuerung eines Roboters. Der Roboter erhält dank einer Kamera und einem neuronalen Netzwerk die Auge-Hand-Koordination und eine vergleichbare Flexibilität wie ein Mensch. Ein solches intelligentes Robotersystem lernt bei neuen Aufgaben, bei anders geformten oder positionierten Werkteilen oder bei vergleichbaren Varianzen schnell, was es zu tun hat und passt bei Bedarf seine Bewegungen in Echtzeit eigenständig an. Ob es sich um das Picken einzelner Teile, Zustellbewegungen oder Fügen und Verfolgen handelt: Zahlreiche Tätigkeiten sind mit einer einzigen kleinen Kamera am Roboter-Handgelenk umsetzbar.

Diese Fähigkeiten lassen sich mit MIRAI durch menschliche Demonstration trainieren. Weder KI- noch Programmierkenntnisse sind erforderlich. Das Know-how bleibt selbst ohne KI-Fachkräfte im Unternehmen. Dem Roboter muss dafür das Ziel einige Male in typisch vorkommenden Varianzen mit der Kamera gezeigt werden. Die KI verallgemeinert im Anschluss die gezeigten Daten. Ein solches System kann in wenigen Stunden trainiert und sogar neu trainiert werden. Selbst eine Fertigung im High Mix-/Low-Volume lässt sich so rentabel automatisieren. Was intelligente Robotiklösungen bereits in der Praxis leisten, zeigen die folgenden Beispiele.

Intelligentes Handling-System bei ZF

Der Technologiekonzern ZF stand vor der Herausforderung, die Werkstückzufuhr einer großvolumigen Frässtation, in der Zahnräder produziert werden, zu automatisieren. Im Werkprozess werden Metallringe aus einer Kiste entnommen und auf ein Förderband gelegt, um später in die Produktion der Zahnräder einzufließen. Die Schwierigkeit: Der Produktionsschritt ist sehr variantenreich, da sich die Ringe in der angelieferten Gitterbox verschieben und dadurch zufällig angeordnet sind. Auch Platzierung und Form der Box variieren. Wechselnde Lichtverhältnisse stellen eine zusätzliche Herausforderung dar. Außerdem ist die Oberfläche der Ringe metallisch glänzend, teilweise ölverschmiert oder korrodiert, was eine klassische Automatisierung unmöglich machte.

Heute ist die KI-Steuerung MIRAI und ein Cobot vom Modell UR10e bei ZF in einer automatisierten Werkstückaufnahme im Einsatz. Mit seiner eigenen Steuerung bringt der Cobot sich über den Ringen in der Kiste in Position. Nun übernimmt das MIRAI-System die Kontrolle: Es bewegt den Roboter selbstständig zum nächsten Ring und bringt den Greifer in die korrekte dreidimensionale Greifposition. Danach übernimmt der UR10e wieder, nimmt den Ring auf und bewegt ihn zum Ablegen auf das Förderband. Das komplette Einrichten des Roboters dauerte lediglich wenige Tage – MIRAI löste in kürzester Zeit ein lang bestehendes Problem.

BSH sucht mit KI nach Kältemittellecks

An ihrem spanischen Standort stellt die BSH Hausgeräte GmbH Kühl- und Gefrierschränke her. Im Herstellungsprozess muss das Unternehmen die Kupferrohrleitungen der Kühlschränke auf Leckagen testen. Für die sogenannte Dichtheitsprüfung wird eine Schnüffelsonde entlang der Kupferrohrleitungen und Kompressoren geführt, um Lötstellen auf austretendes Gas und Kältemittel zu prüfen. Das Besondere: Jede Rückseite der hergestellten Kühlschränke ist einzigartig, was Position, Farbe und Form der Lötpunkte angeht. Für einen herkömmlichen Roboter sind solche Varianzen ein unüberwindbares Hindernis. Der monotone Prüfprozess blieb dem Menschen vorbehalten – bis jetzt.

Den Prüfprozess übernimmt bei BSH nun eine Robotik-Komplettlösung den Prüfprozess. Dank der integrierten Robotersteuerung MIRAI ist es dem Roboter möglich, alle zu prüfenden Lötstellen verlässlich zu identifizieren und die Schnüffelsonde millimetergenau heranzuführen – unabhängig von Position, Form oder Farbe. Das System reagiert in Echtzeit auf seine Umwelt und handhabt selbst unvorhergesehene Abweichungen präzise. Die Roboterfähigkeiten wurden von Mitarbeitenden bei BSH durch menschliche Demonstration in nur wenigen Stunden trainiert. Weder Programmier- noch KI-Kenntnisse waren erforderlich. BSH konnte mit der Automatisierungslösung die laufenden Betriebskosten senken und Wartungen und Fehlerbehebungen reduzieren.

Neue Technologien als Wettbewerbsvorteil

Die Beispiele zeigen, dass Unternehmen mit KI sehr viel bewirken können: KI ermöglicht mehr Flexibilität, Unabhängigkeit, Effizienz und nicht zuletzt Resilienz. Nicht unwichtig in Zeiten wie diesen. Neue Technologien sollte dabei als Türöffner zu mehr Automatisierung verstanden werden. Leistungen, die bislang von Menschen oder Maschinen erbracht wurden, können nun von einer Software geliefert werden. Das ist nicht nur vorteilhaft beim drastisch zunehmenden Arbeitskräftemangel. Es erhöht auch die Flexibilität, Nachvollziehbarkeit und Zuverlässigkeit von Produktionsprozessen und verschafft einen dauerhaften Wettbewerbsvorsprung.

Weitere Informationen unter: https://bit.ly/MicropsiIndustries

In Celebration of National Robotics Week, iRobot® Launches the Create® 3 Educational Robot

Robot’s Smartest Developer Platform, Now with ROS 2 and Python Support

BEDFORD, Mass., April 5, 2022 /PRNewswire/ — iRobot Corp. (NASDAQ: IRBT), a leader in consumer robots, today is expanding its educational product lineup with the launch of the Create® 3 educational robot – the company’s most capable developer platform to date. Based on the Roomba® i3 Series robot vacuum platform, Create 3 provides educators and advanced makers with a reliable, out of the box alternative to costly and labor-intensive robotics kits that require assembly and testing. Instead of cleaning people’s homes,1 the robot is designed to promote higher-level exploration for those seeking to advance their education or career in robotics.

In Celebration of National Robotics Week, iRobot launched the Create® 3 Educational Robot – the company’s most capable developer platform to date. Now with ROS 2 and Python Support, Create 3 provides educators and advanced makers with a reliable, out of the box alternative to costly and labor-intensive robotics kits that require assembly and testing. Create 3 is designed to promote higher-level exploration for those seeking to advance their education or career in robotics.

The launch of Create 3 coincides with National Robotics Week, which began April 2 and runs through April 10, 2022. National Robotics Week, founded and organized by iRobot, is a time to inspire students about robotics and STEM-related fields, and to share the excitement of robotics with audiences of all ages through a range of in-person and virtual events.

„iRobot is committed to delivering STEM tools to all levels of the educational community, empowering the next generation of engineers, scientists and enthusiasts to do more,“ said Colin Angle, chairman and CEO of iRobot. „The advanced capabilities we’ve made available on Create 3 enable higher-level students, educators and developers to be in the driver’s seat of robotics exploration, allowing them to one day discover new ways for robots to benefit society.“

With ROS 2 support, forget about building the platform, and focus on your application: 
The next generation of iRobot’s affordable and trusted all-in-one mobile robot development platform, Create 3 brings a variety of new functionalities to users, including compatibility with ROS 2, an industry-standard software for roboticists worldwide. Robots require many different components, such as actuators, sensors and control systems, to communicate with each other in order to work. ROS 2 enables this communication, allowing students to speed up the development of their project by focusing more on their core application rather than the platform itself. Learning ROS 2 also gives students valuable experience that many companies are seeking from robotics developers.

Expand your coding skills even further with Python support:
iRobot also released a Python Web Playground for its iRobot Root® and Create 3 educational robots, providing a bridge for beginners to begin learning more advanced programming skills outside of the iRobot Coding App. Python, a commonly used coding language, enables users to broaden the complexity of projects that they work on. The iRobot Education Python Web Playground allows advanced learners and educators to program the iRobot Root and Create 3 educational robots with a common library written in Python. This provides users with a pathway to learn a new coding language, opening the door to further innovation and career development.

With more smarts, Create 3 lets you do more:
As a connected robot, Create 3 comes equipped with Wi-Fi, Ethernet-over-USB host, and Bluetooth. Create 3 is also equipped with a suite of intelligent technology, including an inertial measurement unit (IMU), optical floor tracking sensor, wheel encoders, and infrared sensors for autonomous localization, navigation, and telepresence applications. Additionally, the robot includes cliff, bump and slip detection, along with LED lights and a speaker.

A 3D simulation of Create 3 is also available using Ignition Gazebo for increased access to robotics education and research.

Create 3 Pricing and Availability
Create 3 is available immediately in the US and Canada for $299 USD and $399 CAD. It will be available in EMEA through authorized distributors in the coming months. Additional details can be found at https://edu.irobot.com/what-we-offer/create3.

iRobot Education Python Web Playground Availability
The iRobot Education Python Web Playground can be accessed in-browser at python.irobot.com.

Robots as helpers in the lettuce harvest

Robot solution for automating the lettuce harvest

Lettuce is a valuable crop in Europe and the USA. But labor shortages make it difficult to harvest this valuable field vegetable, as sourcing sufficient seasonal labor to meet harvesting commitments is one of the sector’s biggest challenges. Moreover, with wage inflation rising faster than producer prices, margins are very tight. In England, agricultural technology and machinery experts are working with IDS Imaging Development Systems GmbH (Obersulm, Germany) to develop a robotic solution to automate lettuce harvesting.

Robot solution for automating the lettuce harvest

The team is working on a project funded by Innovate UK and includes experts from the Grimme agricultural machinery factory, the Agri-EPI Centre (Edinburgh UK), Harper Adams University (Newport UK), the Centre for Machine Vision at the University of the West of England (Bristol) and two of the UK’s largest salad producers, G’s Fresh and PDM Produce.

Within the project, existing leek harvesting machinery is adapted to lift the lettuce clear from the ground and grip it in between pinch belts. The lettuce’s outer, or ‘wrapper’, leaves will be mechanically removed to expose the stem. Machine vision and artificial intelligence are then used to identify a precise cut point on the stem to to neatly separate the head of lettuce.

„The cutting process of an iceberg is the most technically complicated step in the process to automate, according to teammates from G subsidiary Salad Harvesting Services Ltd.“, explains IDS Product Sales Specialist Rob Webb. „The prototype harvesting robot being built incorporates a GigE Vision camera from the uEye FA family. It is considered to be particularly robust and is therefore ideally suited to demanding environments. „As this is an outdoor application, a housing with IP65/67 protection is required here“, Rob Webb points out.

GV-5280FA

The choice fell on the GV-5280FA-C-HQ model with the compact 2/3″ global shutter CMOS sensor IMX264 from Sony. „The sensor was chosen mainly because of its versatility. We don’t need full resolution for AI processing, so sensitivity can be increased by binning. The larger sensor format means that wide-angle optics are not needed either“, Rob Webb summarized the requirements. In the application, the CMOS sensor convinces with excellent image quality, light sensitivity and exceptionally high dynamic range and delivers almost noise-free, very high-contrast 5 MP images in 5:4 format at 22 fps – even in applications with fluctuating light conditions. The extensive range of accessories, such as lens tubes and trailing cables, is just as tough as the camera housing and the screwable connectors (8-pin M12 connector with X-coding and 8-pin Binder connector). Another advantage: camera-internal functions such as pixel pre-processing, LUT or gamma reduce the required computer power to a minimum.

The prototype of the robotic mower will be used for field trials in England towards the end of the 2021 season.

„We are delighted to be involved in the project and look forward to seeing the results. We are convinced of its potential to automate and increase the efficiency of the lettuce harvest, not only in terms of compensating for the lack of seasonal workers“, affirms Jan Hartmann, Managing Director of IDS Imaging Development Systems GmbH.

Prototype lettuce harvesting robot of Agri-Epicentre (UK)

The challenges facing the agricultural sector are indeed complex. According to a forecast by the United Nations Food and Agriculture Organization (FAO), agricultural productivity will have to increase by almost 50 percent by 2050 compared to 2012 due to the dramatic increase in population. Such a yield expectation means an enormous challenge for the agricultural industry, which is still in its infancy in terms of digitalization compared to other sectors and is already under high pressure to innovate in view of climatic changes and labor shortages. The agriculture of the future is based on networked devices and automation. Cameras are an important building block, and artificial intelligence is a central technology here. Smart applications such as harvesting robots can make a significant contribution to this.