By Carol Grace for RobotLAB.com
The recent years saw an increased adoption of technology in education, from the shift to virtual learning environments to the use of robotics within classrooms. For instance, a previous post highlights how collaborative robots or cobots have limitless potential not only for improving workplace health and safety but also for transforming education, particularly in the context of teaching engineering. Through open-ended, flexible programming, cobots can help students hone their problem-solving skills and adapt to more complex robotic applications.
Beyond cobots, another emerging technology that demonstrates benefits in classroom settings is augmented reality. Below, we take a look at what augmented reality is and how its applications can particularly help students better understand robot programming.
Image Source: Unsplash
Technological innovation is on the rise, and the world of today looks very different for most than it did ten years ago. With most having access to formerly cutting-edge tech like smartphones and tablets, and new breakthroughs in blockchain and AI technology, the difference is notable; and likely will continue to be so as these innovations become more widely accepted.
As an educator, you’ve likely seen some changes to your day-to-day operations. With cutting-edge educational technology, back-office software that eliminates manual record-keeping, and automation you can leverage to connect with students and parents, you’re seeing an unprecedented amount of technological support. You’ve also, likely, struggled to adapt and learn new systems.
Image Source: Pexels
Science, technology, engineering, and math (STEM) concepts are central parts of life today. There are few jobs and everyday tasks that aren’t in some way supported or driven by advanced tools. This makes it increasingly vital that students can confidently navigate STEM subjects.
Unfortunately, there’s limited time during the school day to devote to this. As a parent, one of the ways to support their in-class education is to foster STEM learning at home. Even a little extra STEM activity, with encouragement from you, can help bolster their understanding, equipping them for the world they’ll be entering as adults.
Image Source: Pexels
The Global Robotics Integrator Earned ‘Best Partnership' for Expanding EdTech Access Across American Samoa
|
American Samoa Department of Education Head of Technology Integration Office Dr. Solomona Tuisamatatele (left) and RobotLAB Director of Customer Success Paul Knaack (right)
DALLAS (April 2, 2024) – RobotLAB, an award-winning robotics integrator that delivers impactful technological innovations and solutions for educators and business owners across the globe, has earned ‘Best Partnership’ in EdTech Chronicle’s 2023 Best in Education Awards for its transformative partnership with the American Samoa Department of Education. The inaugural “Bestie” Awards recognize people and partnerships that improve education technology access and learning across the globe. Inked in late 2023, RobotLAB’s partnership with the American Samoa Department of Education provided education technology solutions for all K-12 public schools in the island nation, including special education bundles for schools that offer autism therapy. The programs expose students to age-appropriate technology and encourage a mastery of computer science, artificial intelligence, automation, STEM and robotics.
By Katie Brenneman
The power of a STEM-based education will never be understated. As a society, we have a growing dependence upon advanced technologies, even in industries that don’t initially appear directly related to STEM, which makes this type of education absolutely critical. The skills learned through science, technology, engineering, and math will continue to be essential to our society far into the future.
In the coming years, chances are that STEM advances will continue to have a bigger and bigger impact on our lives. One of the ways it will happen is through the incorporation of more robotics. Thousands of jobs will be lost to robotics and automation while thousands more will be created, largely in fields associated with managing and maintaining robotic systems. To prepare for this, our students will need to become familiar with robotics and become the innovators of tomorrow.
By Jimmy Cantrell
The human brain contains millions of neurons that allow us to process vast amounts of information from multiple sources. Our senses feedback data from our experiences to our brains, which organizes the data into patterns to allow us to understand the world around us.
Deep learning is a subset of machine learning that uses algorithms built on neural networks modeled after the human brain. With multiple layers working together inside the computer, artificial neurons or ‘nodes’ use mathematical calculations to process data to solve complex problems, much like how our own brains do.
In this short guide, we explore how deep learning works in more detail and how it can be useful in our day-to-day lives.
By Devin Partida
Scholarships advance STEM education, particularly in the field of robotics. These financial aids open doors for aspiring innovators, enabling them to pursue their dreams without the burden of financial constraints.
Educators stand at the forefront of this endeavor as invaluable mentors and guides. Their insight and encouragement help students navigate scholarship applications and impact their success. Their role extends beyond teaching — they inspire the next generation of robotics professionals, shaping the future of technology and innovation.
Dan Fitzpatrick delivered a keynote address on the future of AI in education, discussing its potential impact and challenges. Here's a summary of his insightful points:
Pepper arrived at Stillwater Center in Montgomery County in January. Photo courtesy of Stillwater Center.
The newest member of Stillwater Center’s team can speak multiple languages, double-check dosage information for patients and lead story time for children at the facility.
This new addition to Stillwater also stands at four feet tall and is made of metal and plastic.