Abate interviews Tessa Lau on her startup Dusty Robotics which is innovating in the field of construction.
At Dusty Robotics, they developed a robot to automate the laying of floor plans on the floors in construction sites. Typically, this is done manually using a tape measure and reading printed out plans. This difficult task can often take a team of two a week to complete. Time-consuming tasks like this are incredibly expensive on a construction site where multiple different teams are waiting on this task to complete. Any errors in this process are even more time-consuming to fix. By using a robot to automatically convert 3d models of building plans into markings on the floors, the amount of time and errors are dramatically reduced.
In this episode, Lauren Klein interviews Gennaro Notimista, a robotics PhD student in the Georgia Robotics and InTelligent Systems Laboratory at Georgia Tech. Gennaro discusses the SlothBot, a solar-powered robot that slowly traverses wires, like its animal namesake, to monitor the environment.
In this episode, Abate interviews David Mindell, co-founder of Humatics. David discusses a system they developed that can detect the location of a special tracking device down to a centimeter level accuracy. They are currently developing a device to detect location down to a millimeter level accuracy. This solves a the core problem of localization for robots. David discusses the technology behind these products and their applications.
“Within the framework of the European project ROBOTT-NET we are developing software and robotic solutions for the prevention and control of rodents in enclosed spaces”, says Marco Lorenzo, Service Supervisor at Irabia Control De Plagas.
In this interview, Audrow Nash interviews Marco Hutter, Assistant Professor for Robotic Systems at ETH Zürich, about a quadrupedal robot designed for autonomous operation in challenging environments, called ANYmal. Hutter discusses ANYmal’s design, the ARGOS oil and gas rig inspection challenge, and the advantages and complexities of quadrupedal locomotion.
New machine-learning system can automatically retouch images in the style of a professional photographer. It’s so energy-efficient, however, that it can run on a cellphone, and it’s so fast that it can display retouched images in real-time, so that the photographer can see the final version of the image while still framing the shot.
Rapid advances in technology are revolutionizing the roles of aerial, terrestrial and maritime robotic systems in disaster relief, search and rescue (SAR) and salvage operations. Robots and drones can be deployed quickly in areas deemed too unsafe for humans and are used to guide rescuers, collect data, deliver essential supplies or provide communication services.
Jim Robinson of RRE Ventures said it best last month at the Silicon Dragon Conference when comparing Silicon Valley to New York, “There are two kinds of centers that have a lot of startups and technology, there are technology centers and commerce centers.” New York falls into the later category, while the Valley is the former. Sitting next to Jim, I reflected that Singapore might be in both groups, an Asian commerce hub and a leader in mechatronics. As an advocate for automation, I am often disheartened that the United States significantly lags behind its industrial counterparts in manufacturing autonomous machines. The key to a pro-job policy could be gleaning from the successes of countries like Singapore to implement America’s own ‘Robot First Plan.’
The need for fast, accurate 3D mapping solutions has quickly become a reality for many industries wanting to adopt new technologies in AI and automation. New applications requiring these 3D mapping platforms include surveillance, mining, automated measurement & inspection, construction management & decommissioning, and photo-realistic rendering. Here at Clearpath Robotics, we decided to team up with Mandala Robotics to show how easily you can implement 3D mapping on a Clearpath robot.
Advances in robotics and AI have led to modern commercial drone technology, which is changing the fundamental way enterprises interact with the world. Drones bridge the physical and digital worlds. They enable companies to combine the power of scalable computing resources with pervasive, affordable sensors that can go anywhere. This creates an environment in which businesses can make quick, accurate decisions based on enormous datasets derived from the physical world.
We develop the fastest, smallest and lightest distance sensors for advanced robotics in challenging environments. These sensors are born from a fruitful collaboration with CERN while developing flying indoor inspection systems.
The Xponential 2017 national conference was held May 8-11 by the Association for Unmanned Vehicle Systems International (AUVSI) in the Kay Bailey Hutchison Convention Center in Dallas, Texas. The event took place in the largest exhibit hall ever dedicated to unmanned systems and robotics, with over 370,000 square feet. It featured over 650 robotics organizations – companies, research institutions, universities, consultants, nonprofits and more – from the U.S. and countries worldwide.
I was recently asked about the differences between RADAR and LIDAR. I gave the generic answer about LIDAR having higher resolution and accuracy than RADAR. And RADAR having a longer range and performing better in dust and smokey conditions. When prompted for why RADAR is less accurate and lower resolution, I sort of mumbled through a response about the wavelength. However, I did not have a good response, so this post will be my better response.
NATO Nations have agreed to use JANUS, a new underwater communications device, as the NATO Standard for digital underwater communications. This is the first time a digital underwater communication protocol has been acknowledged at an international level. Implementing JANUS paves the way for a standardised ‘Internet of Underwater Things’ with many exciting future applications.