STEM and Robotics
STEM and Robotics
—Justin McGlamery
Participants pull together to focus on effective communication skills and discover their potential as a group during the experiential activity called Focus Ring
Gamifying Science
New wave of science learning has students Citizen science is a concept as old as
science itself.
contribute to real projects “I would have us look at science in a
historical arc. Science was born of ingenu-
By Sarah D. Sparks ity,” said Jason Frenzel, who oversees citi-
T
zen science projects for the Huron River
his spring, in a Michigan Academies of Science, “and seems espe- Watershed Council in Michigan. “A long
meadow, teenagers spent a cially well-suited to examining the way time ago, it was just regular people who
Saturday afternoon poking learning is socially and culturally medi- were scientists. We should be giving the
through tall grass collecting ated, and how learning can intersect with community a lot of opportunities to inte-
unknown bugs. In a library in equity, diversity, and power.” grate in our field.”
Massachusetts, other children and youths More recently, citizen science has
spent a weekend glued to their tablets spread with the rise of social media and
and smartphones, playing an online game
What Is Citizen Science? technology platforms that allow millions
about mouse brains. Still others turned The Citizen Science Association de- of people to share data and observations
their star-gazing into academic papers. scribes four characteristics that distin- easily online.
It’s a pretty disparate grouping of guish these sorts of projects from more Take Stall Catchers, an online video
weekend activities, but all are part of a traditional school science activities: Any- game introduced by the Human Computa-
growing “citizen science” movement, in one can take part; volunteers use the same tion Institute in partnership with Alzheim-
which nonscientists collaborate with sci- protocols as the professional research- er’s researchers at Cornell University. The
entists to gather data to feed into real ers to allow their data to be pooled and researchers had found a link between
research projects. Experts say these proj- checked; scientists and volunteers work clogged capillaries in the brain, dubbed
ects, which often involve adults as well together to conduct original research and “stalls,” and the progression of the degen-
as children and teenagers, represent the solve real problems, not just demonstrate erative disease, but computer programs do
next generation of science learning, an concepts; and researchers share and help not identify these tiny blockages in video
approach that can happen out of school explain results to the volunteers and the as accurately as people do. The researchers
as easily as in the classroom and connect public, to help them understand how their developed a game in which players com-
students to real research in the field. contributions were used. pete to identify stalls in Cornell’s actual
“Citizen science offers a new venue in Citizen science projects can give stu- dataset of videos taken from mouse brains.
which to examine science learning,” notes dents a more realistic view of the field, “Today, we’re operating around four or
a 2018 report on the field by the National said Alice Sheppard, an expert with Ex- five times as fast as the lab,” said Pietro
STEM and Robotics / edweek.org 3
Since the Apollo 11 moon landing 50 years ago, generations of school children
have seen how the real-world application of science, technology, engineering,
and math (STEM) can lead to awe-inspiring achievements. Boxlight, the Aldrin
Family Foundation, and ShareSpace Education (SSE) are partnering to provide
students in the fourth through eighth grades with innovative, educational tools
for STEM learning.
By integrating ShareSpace’s Giant Moon Map™ and Giant Mars Map™ programs with the
Mimio MyBot educational robotics system, STEM educational activities have never been
more fun and rewarding. Through the use of these highly accurate, large scale floor-sized
maps, students can be introduced not only to information about these planets, but also
learn about map reading, evaluating and understanding topographic information, geology,
how planets form, and the effect of impacts on these celestial bodies.
Further exploration is enhanced through the use of programmable Mimio MyBot rovers,
which are equipped with various sensors to read information from the maps and return
this data to the student mission controllers. Students can then use this information for
formulating and testing theories about Mars and the moon, as well as learning how to
program the Mimio MyBot rovers for autonomous navigation and investigation. Teamwork
and collaboration skills become honed as these multi-disciplinary teams explore, analyze,
and make decisions together to complete different expeditions on these fascinating worlds.
BOXLIGHT.COM/ALDRINFAMILYFOUNDATION
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The colorful and unique nature of these giant maps appeals to all grade levels, piquing interest and curiosity. The
interactive exploration using these space maps and rovers provides authentic, engaging lessons and activities that help
students develop an understanding of real-world, STEM-based concepts while promoting communication, collaboration,
creativity, and critical thinking skills.
1 Lunar Pro Globe with augmented reality technology 1 Mars Pro Globe with augmented reality technology
10 Sensor Packs: Includes a Color, Integrated Gyro, 10 Sensor Packs: Includes a Color, Integrated Gyro,
Magnetic, Optical Distance, and Touch sensor per pack Magnetic, Optical Distance, and Touch sensor per pack
1 Mimio MicroCloud appliance to provide a local Wi-Fi 1 Mimio MicroCloud appliance to provide a local Wi-Fi
access point access point
20 copies of Welcome to the Moon 20 copies of Welcome to Mars
Objective, goal-oriented challenges and activities using the Objective, goal-oriented challenges and activities using the
Mimio MyBot rovers and maps, including: Mimio MyBot rovers and maps, including:
• Discovering the difficulties of traveling to and working in • Discovering the difficulties of traveling to and working
space and on other planets in space and on other planets
• Mapping and understanding the topography of the moon • Mapping and understanding the topography of Mars
• An introduction to programming with the • An introduction to programming with the
Mimio MyBot rover Mimio MyBot rover
• Developing programs to collect and analyze data • Developing programs to collect and analyze data
• Light, colors, and color detection • Light, colors, and color detection
• Magnetism and magnetic fields • Magnetism and magnetic fields
• Navigation and collision avoidance • Navigation and collision avoidance
• Gyroscopes and their use in navigation • Gyroscopes and their use in navigation
and stability and stability
Working with functioning, programmable robots on a simulated planetary surface draws students into the mission like no other STEM
solution can. The Mimio MyBot system is purpose-built and rugged for classroom use. All of the activities are developed around
scientific principles and methodologies.
Begin your journey to the moon, Mars, and beyond with our unique STEM bundle at boxlight.com/aldrinfamilyfoundation.
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STEM and Robotics / edweek.org 4
William Dunn agrees. The Harvard- managing research teams, while giving So far, the ORBYTS teams have co-
Smithsonian research fellow coordinates high school students the room to explore written five articles of original findings
the ORBYTS project, in which undergrad- scientifically. which have been published in academic
uate and doctoral researchers work with One recent discovery about the chemical journals—and the high school students
high school students on original questions makeup of a planet outside our solar sys- were listed as co-authors.
in the astronomy field. The project targets tem came from students “playing around
high schools with few science teachers with the data and then finding something Coverage of after-school learning opportunities is
and in low-income communities. weird in it. And the researcher saying, supported in part by a grant from the Charles Stew-
The project has the double benefit of ‘Yes, that is weird, I don’t know what it is.’ art Mott Foundation. Education Week retains sole
giving young scientists experience in And that’s good for the kids to hear.” editorial control over the content of this coverage.
A
t Battle High School in
Columbia, Mo., students
in geometry class have
swapped their compasses
and protractors for ham-
mers and hard hats. And they’re doing
it for a good cause.
The school is one of a handful across
the country where students are building
tiny houses in math or career-and-tech-
nical-education courses. The experience,
educators say, not only teaches practical
trade skills but also math, economics,
and problem-solving.
—Whitney Curtis for Education Week
C
said. “For kids who are used to just technology advances, much more could be
doing book math and being good at 3PO from “Star Wars.” HAL possible.
it, it pushes them out of their com- from “2001: A Space Odys-
fort zone.” sey.” “The Terminator.” And
Providing multiple representa- now Apple’s SIRI and Ama-
How It Works
tions—different ways to show or zon’s Alexa. Artificial Intel- So how does that actually work? That’s
describe the same mathematical ligence has always been part of our collec- a complicated question, in part because
concept—can help deepen students’ tive imagination. But it’s now becoming experts aren’t always on the same page
understanding, said Robert Berry, part of our everyday lives. about what AI is and what it isn’t.
the president of the National Coun- There is, of course, a ton of hype. Ex- Right now, all sorts of technology, in-
cil of Teachers of Mathematics. Ap- perts think this new type of “machine cluding educational software, is “adap-
plying geometry principles to con- learning” could help people do all sorts tive.” That means it’s pre-programmed to
struction is one way to do that, he of things over the next couple of decades: take certain steps, based on what a user—
said. power self-driving cars, cure cancer, cope say, a student—does. In simple terms, if a
Still, when it comes to curricu- with global warming, and yes, transform kid taking an adaptive test gets an answer
lum’s effect on student achieve- K-12 education and the jobs students are right, the system knows to give that kid
ment, data are limited. Math-test- preparing for. a tougher question next. (Think of this as
score data from the Thompson R2-J It’s too early to say how much of that a much more sophisticated, computerized
school district, home to Loveland promise will end up bearing out. But it’s version of those choose-your-own adven-
High School, showed that students a good idea for educators to get familiar ture books you might have read as kid.)
in the GiC course at Loveland scored with AI, whether they are the chief tech- Plenty of experts would call those
higher than students in traditional nology officer of a large urban district or systems “AI” and plenty of vendors mar-
geometry in the three school years a 1st grade teacher in a rural community. ket their educational software that way.
from 2009 to 2012. But as students So what exactly is AI? The simplest ex- But these so-called “rule-based” systems
self-selected into GiC, the data can’t planation is that AI trains a machine to aren’t the “fancy, sexy AI” that’s grabbing
determine whether the course was do tasks that simulate some of what the headlines, said Robert Murphy, a senior
what caused the rise in test scores. human brain can do. That means it can policy researcher for the RAND Corpora-
Burke now teaches in Jefferson learn to do things like recognize faces and tion. That’s because all the information is
County, Colo., where he’s also helping voices (helpful for radiology, security, and already pre-programmed. The machine
to grow the GiC program across the more), understand natural language, and can’t get any better at a particular task.
district. He said he hopes the expan- even make recommendations (think the Cutting-edge AI relies on systems that
sion will provide more data. algorithm Netflix uses to suggest your can actually learn, usually by analyzing
STEM and Robotics / edweek.org 6
vast quantities of data and searching out to help teachers figure out when their used to figure out criminal sentences tend
new patterns and relationships. Instead students are less likely to be engaged to make harsher predictions about black
of following one already predetermined and combat that problem. defendants than white defendants. And
pathway, these systems can actually im- Tay, a chatbot developed by Microsoft,
prove over time, becoming more and more was supposed to figure out how to emulate
complex and accurate as they take in
Potential Trouble Spot: Bias natural conversation by interacting with
more and more information. The use of artificial intelligence in edu- Twitter users. Instead, it began commu-
cation is expected to explode to a world- nicating in vulgar and racist hate speech.
wide market value of $6 billion over the
Current Use of AI in Schools next six years. And about 20 percent of
How is AI being used in K-12 schools? that growth will come from applications
Not the Ultimate Decisionmaker
Classrooms are already using AI- for K-12 teaching and learning in the Bias issues may not be such a big deal
powered tools—including smart speak- United States, according to a report by if an AI-powered system is trying to, say,
ers, like Amazon’s Alexa or Google As- Global Market Insights. What’s more, predict what pair of pants a retail custom-
sistant—as teaching tools. And school the McKinsey Global Institute predicts er will buy next. But it is problematic if
districts are beginning to use the tech- that 40 percent of the tasks that elemen- the system is trying to figure out whether
nology to do things like plan tary school teachers now perform a student should apply to a particular col-
bus routes, screen applica- —mostly noninstructional lege or not, or suggest a specific lesson for
tions for teaching posi- job responsibilities, like an individual student, Oranje said.
tions, and even pre- tracking student prog- That’s why AI systems—especially
dict when a piece of ress and communicat- those designed for teaching and learn-
HVAC equipment is ing with parents— ing—shouldn’t be the ultimate decider of
likely to go bad. could be automated what students learn or what their educa-
But widespread by 2030 with the tional pathway should be, Murphy said.
use of much more help of AI. But AI can still be an important supple-
sophisticated But don’t ex- mental tool, he added.
tools in the class- pect an army of “Maybe 10 percent, 20 percent, 40 per-
room is down the AI-powered robots cent of the time [the system] will get it
road, said Michael to be filling teacher wrong,” Murphy said. “It will vary by sys-
Chui, a partner at job applications at a tem, but 70 percent of the time they’ll get
McKinsey & Company district office near you. it right.” The systems could still help dis-
who has a deep back- Andreas Oranje, a gen- tricts individualize instruction, but edu-
ground in computer sci- eral manager in the ETS cators need to remain the most important
ence. Eventually, AI has the —Getty Research Division, said during part of the equation.
potential to individualize lessons for a session at the International Society for And of course, there’s another big, obvi-
students “the way a really, really awe- Technology in Education’s annual con- ous concern: Data privacy, especially for
some teacher does,” Chui said. But he ference this year that he expects AI will K-12 students. That’s something advocates
cautioned, “it’s very, very early.” ultimately help educators perform rote on both sides of the privacy debate are
Already, though, at least some form of tasks, not replace them. keeping an eye on, as well as educators.
AI is used in so-called smart tutors, which “My hope for AI is we actually will ex- “I’m super against this idea of ‘let’s put
help schools differentiate instruction for pand teaching,” Oranje said. “No teacher an Alexa in the classroom,’ because you’re
different kinds of learners. In some cases, ever lost her job because every kid had an giving Amazon access to kids’ voices with-
they can process natural language to in- iPad. We need more teachers, not fewer. out parents’ consent,” said Mary Beth
teract with students. AI is also used in The nature of teaching will change. But it Hertz, the technology coordinator for the
applications like automated essay scoring, doesn’t mean that 40 percent of teachers Science Leadership Academy at Beeber in
and early warning systems, which can will lose their jobs.” Philadelphia. “I personally am trying to
help identify which students are at risk of What are some of the problems with learn more about what ways should we use
dropping out. using AI in classroom technology? AI may AI in the classroom, keeping in mind pri-
To be sure, education technology be fancy and sexy, but it’s far from per- vacy concerns around the data. AI doesn’t
companies have even loftier ambitions fect. One big problem: Human biases can work unless you are feeding it data.”
for how AI might reshape K-12 educa- be written right into the algorithms that
tion. Case in point: Classcraft, a game- power AI and then amplified by the tech-
based classroom management tool, is nology. What’s more, the data that these
Tech Skills for the Future
teaming up with researchers at the systems use also can be biased. That can Should students be learning skills
University of Montreal to see if AI can lead the machines to inaccurate, discrimi- sophisticated enough for them to get in-
find patterns in student engagement natory, and even racist conclusions. volved in creating AI? A lot of experts see
and use them to make suggestions How this plays out in the real world: that as the next frontier. Many are partic-
to teachers right now, and the pro- facial recognition software, which is cur- ularly interested in making sure that stu-
gram allows teachers to give students rently used for airport security and may dents from groups that have historically
“points” for positive behavior such as even be deployed for school safety, is noto- been underrepresented in STEM fields—
critical thinking, collaboration, and riously bad at identifying women and peo- including girls and racial and ethnic mi-
even empathy. The company and re- ple of color. More troubling: Studies have norities—are involved in creating AI, to
searchers are hoping to use that data shown that risk-assessment algorithms help counteract the potential for bias.
STEM and Robotics / edweek.org 7
A jarring but true fact: Vladimir Putin out what to teach on AI. But for now, less Nick Polyak, the superintendent of the
told millions of Russian school children than 100 schools in the country are of- district. “The traditional method of learn-
that the nation that leads in AI “will be fering some form of K-12 instruction in ing a topic deeply in college and then going
the ruler of the world.” And China is striv- this area, experts estimate. on to teach isn’t relevant anymore because
ing to be the world leader in AI by 2030. Another challenge even for relatively the knowledge is changing too quickly.”
But in the United States, many affluent, tech-savvy districts like Leyden But he sees figuring out the challenge
schools aren’t even offering computer High School District 212 outside Chicago: as an imperative.
science courses, much less AI learning Finding educators who can teach those “I don’t want our students to be the
opportunities. Big barriers include lack high-tech skills, particularly at a time people who just buy autonomous cars,” he
of curriculum and instructional materi- when the teacher ranks in general are said. “I want them to be the people who
als. Some experts and educators are try- thinning in some parts of the country. are designing and improving them. It’s
ing to change that, including AI4K12, “What we really need are teachers with imperative on us to provide an education
a working group that is developing na- a level of humility who are willing to learn that makes them ready to step into the
tional guidelines to help schools figure alongside the students at this point,” said evolving job market.”
COMMENTARY
Published February 19, 2019, in Education Week
W
hen a group of 5th grad-
ers from John Murdy
Elementary School in
Garden Grove, Calif.,
started a fundraiser to
help kids affected by the 2010 earthquake
in Haiti, it wasn’t because of what they
learned in social studies class. It was be-
cause of what they learned through study-
ing engineering.
Their teacher, Camie Walker, unlocked
the full potential of engineering as a sub-
—Getty
• High-resolution color sensors that can be used to explore the optical spectrum and experiment with the reflective,
transmissive, and absorptive qualities of different materials.
• Three axis gyroscopes, which measure angular movement in each of the three axes and can be used to move along
a fixed heading while monitoring side-to-side tilt and front-to-back pitch, enabling course correction should the robot
begin to tip or approach a steep incline.
• Magnetic compass and three-axis accelerometer enables the robotic system to find magnetic north and can report
changes in velocity in the different axes. In addition to motion exploration, this allows a demonstration of vectors and
vector arithmetic.
• Optical and ultrasonic distance measurement allows exploration of the speed of light and sound as well as the ability to
sense objects in the robot’s path for automatic collision avoidance.
• Infrared light detection and location expands on light and color experimentation by moving into the non-visible part of
the spectrum.
• Ambient light sensors can be used to explore physical phenomena regarding light, including coherency and loss over
distance due to areal diffusion. They can also be used to record light levels over time using the MyBot’s built-in data-
logging capabilities. Data from any of the sensors can be recorded periodically over the course of days and made
available to spreadsheet programs for analysis and graphing.
• Magnetic field sensors can locate and measure magnetic fields, providing a hidden target for an autonomous robot
hide-and-seek game.
These small, ruggedly packaged and pre-wired sensor This new generation of skilled workers will have the
modules allow students to observe real-world physical ability to develop new and better technology solutions
phenomena in a cost-effective and fun way, enabling to solve tomorrow’s problems.
educators to base lessons on more than just whiteboard As the saying goes, “If the robots are going to take over your
drawings. With Mimio MyBot, you can bring science to life. job, maybe you ought to be learning to control and program
Our world today is increasingly dependent on technology, the robots.”
and the future workforce will embrace candidates who Want to learn more about incorporating robotics in the
have the ability to not just use STEM products, but who classroom? Visit boxlight.com/mybot to discover how our
have developed true STEM skills: the ability to apply their intuitive system helps students develop core STEM skills.
knowledge of science, mathematics, and technology to
solve new problems.
STEM and Robotics / edweek.org 8
school and around town to raise more corporating engineering curricula into making. It encourages those involved in
than $2,000 for Haitian causes. American schools. solving a problem to listen to and under-
As they designed earthquake-resis- Engaging students in classroom activi- stand each other.
tant structures, these preteens learned a ties that can expand their thinking about It’s time that we look at engineering
fundamental tenet of being an engineer: possible trajectories and futures is impor- as a foundational subject that can provide
Engineers seek solutions to a problem. tant. But as we think about the well-being the glue in a robust educational experi-
Engineering entails learning about the of students (and our country), looking at ence that prepares students for life.
external factors contributing to the prob- engineering as a means to create future That’s the thinking behind what Ca-
lem, understanding the needs of those workers alone is not sufficient. mie Walker and her class at John Murdy
impacted by the problem, and designing It’s true that today’s children will Elementary did. She used engineering to
a technology that can help meet those grow up to a world of more complex jobs. help kids understand that everything is
needs. Through engineering, these stu- But they will also inherit a world that connected, to teach them to ask questions,
dents were introduced to the struggles of has more complex challenges than we and to think and then take action. She
people in a completely different part of the ever faced—socially, economically, and unlocked the true power of engineering.
world and were compelled to help. environmentally. The next generation As many stories this week will focus on
That is the true power of engineering of students need a set of habits of mind how engineering can help fill 21st-century
as a teaching tool—it connects children to that enable them to solve the problems jobs, it’s time that more schools follow her
the world around them and helps them en- they encounter. Some of these will be lead and teach engineering to its fullest
vision new possibilities. In this case, chil- technical in nature. But other, non- potential.
dren learned that they can design technol- technical problems still benefit from the
ogies that change the world around them. same habits of mind. That is what engi- Christine M. Cunningham is the founding director
And yet, we continue to sell it short. neering can do if it’s taught well—help of the Museum of Science Boston’s flagship engi-
The most common reasons offered young people become problems-solvers neering curriculum. She is the author of Engineer-
these days for introducing young chil- and foster skills that serve them well ing in Elementary STEM Education: Curriculum
dren to science, technology, engineering, their whole lives. Design, Instruction, Learning, and Assessment
and math center around job and econom- Engineering teaches skills essential (Teachers College Press, 2018). Previously, she
ic opportunities. We, finally, accurately for life in the 21st century: problem-solv- was director of engineering education research at
see K-12 engineering as a pathway to ing, collaboration, systems thinking, per- Tufts University and directed the first national
the careers of the future. I am grateful sistence through failure, creativity and longitudinal study of the factors that help women
that this goal has led to interest in in- innovation, and evidence-based decision- persist in college engineering majors.
COMMENTARY
Published March 21, 2019, in Education Week’s Next Gen Learning in Action Blog
Transforming Education:
Robotics and Its Value for Next Gen Learning
By Axel Reitzig With a society changing from, among There are many ways to implement
P
other things, globalization, automation, STEM education; one of the best is robot-
ublic education represents a and rapidly evolving technologies, pub- ics, and, when done right, it serves as one
community’s investment in lic schools have been identifying effec- of the most effective platforms for deliver-
its future. Considering that tive tools and approaches for ensuring ing on the promises of a modern educa-
over 90 percent of American continued growth. STEM education has tion.
children, grades P-12, are in been one of the main ways schools have What is robotics? It is a highly inte-
our public education system, we should sought to do this, and with reason. At grated field incorporating a variety of
be asking hard questions about what the its core, STEM incorporates five key el- disciplines, including design and fabrica-
return on this investment is or should be. ements that represent our 21st-century tion, engineering (with an emphasis on
The core mission of public education is to society: electrical, mechanical, and systems engi-
prepare students for their future so that neering), computer science, and many soft
they are contributing citizens, both eco- • Integrated content skills like collaboration, communication,
nomically and civically. Even better, our • A focus on solving authentic problems and creativity. Students involved with ro-
students should graduate with a strong • The application of 21st-century skills botics learn about the complexity of proj-
competitive advantage so that, no matter • Personalized learning and an emphasis ect management, and they apply and re-
their path, they will have optimum oppor- on student agency fine cognitive skills like problem analysis
tunities for success. • Connected learning and critical thinking by working on real-
STEM and Robotics / edweek.org 9
world problems.
Robotics is an ideal STEM learning
experience primarily because it engag-
es, empowers, and challenges students
through these authentic learning tasks. It
also thoroughly addresses each of the five
facets of STEM mentioned above:
Integration: Robotics is a highly in-
tegrated field incorporating a wide range
of skills and knowledge. Participating in
robotics provides students with a compre-
hensive, integrated STEM experience.
Problem-Solving: The design and
use of robotics systems is inherently an
iterative process that requires students to
identify and solve multiple problems. The
challenges are authentic and meaning-
ful, and students cannot pretend to solve
them.
21st-Century Skills: Because of its
integrated nature, robotics regularly
requires students to work on teams. In
turn, students have the opportunity to
develop essential skills like collaboration,
communication, project management,
persistence, creativity, and adaptability,
all qualities K-12 stakeholders regularly
identify as key attributes they look for in
graduates.
Personalized Learning: Because
robotics is such a diverse field, each stu-
dent has the opportunity to experience it
through a personalized lens. They may
play a role on a team best-suited to their
strengths; develop expertise in a field
—Photos, courtesy of St. Vrain Valley Schools
the district. And, in addition to our VEX Curricular: Perhaps the most im- ing a systemic approach. Consider the fol-
program, students participate in FIRST pactful result of our competitive program lowing as you start and grow your program:
and BEST robotics teams. is that it has transformed many of our
The experiences of our competitive secondary elective programs throughout • Core mission: How is the program fur-
programs, what we can call Robotics 1.0, the district, most of which now offer ro- thering your organization’s core mission?
have helped open the door to STEM for botics and computer science during the • Ask the following questions consider-
a wide variety of district stakeholders. It day. Core teachers at all levels are also ing each of the categories below:
has served to educate these stakeholders discussing how they might incorporate –– How do we sustain it?
not only about STEM but also about robot- robotics in their classrooms. Here are –– How do we support it?
ics and its role in our economy and daily ways to bring robotics more directly into –– How do we scale it?
life. It has engaged and challenged teach- the school day: »» Technological
ers, providing them with a valuable tool »» Financial
for transforming their classrooms. It also • Integration and enhancement: How does »» Human resources/profes-
has challenged our system to col- robotics relate to core content al- sional development
laboratively support the rapid ready being taught? What are »» Curricular
growth of the program. extension lessons or activi-
And, most importantly, it ties that can be incorpo- Evaluation: What criteria will you use
has built a solid founda- rated that highlight ro- to evaluate the success of your program?
tion for taking this pro- botics? What data will you collect? How will you
gram to the next level, • Elective classes: These analyze it?
Robotics 2.0. provide students with Develop the program in stages: Since
Robotics 2.0 lever- a passion for robot- robotics is essentially a disruptive innovation
ages the enthusiasm ics the chance to delve within a K-12 ecosystem, it’s helpful to
and experiences stu- more deeply into the structure an implementation timeline
dents, teachers, and topic. around how innovations diffuse throughout
parents have through • Advanced classes/CTE a system. St. Vrain Valley Schools designed
competitive robotics to de- classes: These classes can an Innovative Technology Adoption Frame-
velop deeper, more intentional serve as gateways to postsec- work specifically to help with this process:
STEM opportunities. There are ondary opportunities.
three ways we are approaching this: • Concurrent enrollment: Students can • Innovation: Who are your innovators in
Extracurricular: In addition to com- bolster their robotics skills/knowledge this space? How are they innovators?
petitive experiences, robotics can be ex- while also earning college credit. Be- What support and guidance might they
perienced through noncompetitive after- cause robotics is so broad, there are require? What innovations might you
school experiences like: multiple classes to consider, ranging start with?
from math and science to coding and • Early Adopters: Who are those folks
• After-school project teams: At our dis- electronics. who are watching the innovators? What
trict’s Innovation Center, student proj- guidance and support do they need?
ect teams are developing robotics so- Postsecondary Opportunities: There What costs come with implementation
lutions to real clients like the Denver are several ways to connect students’ inter- at this stage?
Zoo and the National Center for Atmo- est in robotics with possible career paths: • Early and Late Mainstream: At what
spheric Research. This noncompetitive point is it possible and appropriate to
environment attracts a broader range • Apprenticeships and internships: Skills scale a robotics innovation to this level?
of students. students develop through robotics have Can this be justified and supported?
• Tours, guest visits, and lectures: Bring- value to lots of employers. Apprentice- Who should be involved in the discus-
ing students to industry and university ships and internships can help bridge sion at this time?
partners, and vice versa, helps them the divide between K-12 and industry
understand how diverse and dynamic by fostering workforce development. A popular expression in our district
the field of robotics is. • Industry certifications: Students who now is, “Robotics is the gift that keeps
• Events: Competitions, fairs, and show- earn these kinds of certifications grad- on giving.” This is meant in a very posi-
cases are examples of public events that uate with unique qualifications that tive way. Robotics has provided our dis-
allow students and programs to share make them stick out from the crowd. trict and community with considerable
their work. These are great at build- • Two- and four-year degrees: A mature return on investment. It has engaged,
ing community and engaging external program will be aligned with postsec- challenged, and transformed multiple
stakeholders. ondary programs and help students stakeholders, provided exciting and
• Before- and after-school enrichment pro- begin mapping out their career paths meaningful opportunities to thousands of
grams: Offering robotics and computer after high school. students, and added value to the broader
science classes after school is a great STEM experiences our district has been
way to reach a broad, and younger, If you are interested in starting or providing. Take a moment to see what it’s
range of students. Our district’s Com- growing robotics in your district, here are about—we think you’ll like it.
munity Schools program has been an some suggestions:
important partner in providing these Be systemic: Ensuring the long-term Axel Reitzig is the robotics and computer sci-
kinds of opportunities to our elemen- viability of a robotics program, as well as ence coordinator for St. Vrain Valley Schools in
tary schools. ensuring equitable access, requires adopt- Colorado.
STEM and Robotics / edweek.org 11
COMMENTARY
Published October 9, 2017, in Education Week’s Education Futures: Emerging Trends in K-12 Blog
O
easy first step. Research conducted by
ver the past two decades, the DevTech Research Group at Tufts
Robotics
women in the U.S. have University shows that young children can In a DevTech research study con-
made notable progress in learn programming and engineering at a ducted with 105 children in kindergarten
historically male-domi- very early age. This is possible when chil- through 2nd grade in Somerville, Massa-
nated fields, such as law dren are given tools that are developmen- chusetts, results demonstrated that us-
and business. However, when it comes to tally appropriate and engaging, and that ing an early prototype of KIBO as part
technology and engineering, they are pro- encourage open-ended play. of an engaging curriculum that involved
gressing at a much slower rate. Science, Today’s teachers have access to a collaboration and community-building,
technology, engineering, and mathemat- wealth of new tools directed at engaging girls increased their interest in being an
ics (STEM) educational interventions young children with STEM content. While engineer when they grew up. Additionally,
aimed at addressing the gender dispar- the battle of the “pink aisle” versus the while boys started with a higher level of
ity between men and women have gener- “blue aisle” in toy stores continues (think interest in being an engineer, boys and
ally focused on increasing the interest of Goldie Blox and LEGO Friends versus girls were equally interested in engineer-
girls and women during high school and LEGO City), new tools like the KIBO Ro- ing after exposure to KIBO.
college. For many girls, though, interven- botics Kit offer a different approach to en- This same study also found that, be-
tions that begin during adolescence may gaging young girls in building and coding: ginning in kindergarten, children were
be coming too late. Children as young as a gender-neutral design that is marketed already developing some masculine ste-
4 are already beginning to develop basic towards all young children. reotypes about certain STEM games,
stereotypes and attitudes based on gen- Backed by years of research conducted products, and activities. Being exposed
der, so educators can start providing girls by DevTech, KIBO is a robotics kit that to robotics in their classroom helped to
with playful introductions to the world of teaches foundational coding and engi- change some of these views. This dem-
technology and engineering beginning in neering to children ages 4-7. Children onstrates the power of early exposure to
early childhood. learn to sequence programs using wooden robotics and coding in defying gender ste-
programming blocks, so there is no screen- reotypes toward technology and engineer-
time required. They explore foundational ing fields.
Why Start Early? engineering concepts through the use of
Research has shown that basic stereo- motors, sensors, lights, and more. The
types begin to develop in children around kit’s wooden art platforms free children to
Advice for Educators
2 to 3 years of age. As children grow older, decorate their robots differently each time Here are a few tips on how educators
stereotypes about sports, occupations, they use them. can get students excited about robotics
and adult roles expand, and their gender and coding while leaving stereotypes in
associations become more sophisticated. the dust.
Negative stereotypes toward math and
science can develop in girls starting in el- • Start them young: Don’t wait to reach
ementary school. These stereotypes may girls until they are already in their
contribute to the under-representation of teenage and college years. Begin expos-
women in many technical STEM fields. ing girls to STEM in early childhood
We can combat these stereotypes by and early elementary school settings to
reaching girls before these negative ste- make the greatest impact.
reotypes set in. Research suggests that • Choose engaging, open-ended STEM
children who are exposed to STEM cur- tools: Choose tools that empower young
riculum and programming at an early age girls as creators of their digital experi-
demonstrate fewer gender-based stereo- ence, not consumers of it. These may
types regarding STEM careers and fewer include programmable robots, building
obstacles entering these fields later in life. blocks and bricks, digital programming
languages, and more.
• Consider collaborative projects
How to Start Early over competitive ones: While many
Engaging young children (both boys robotics programs beginning at the el-
and girls) with playful tools that teach —Getty ementary school-level focus on competi-
STEM and Robotics / edweek.org 12
tions collaborative projects may engage sociate director of the Early Childhood Tech-
a wider range of students to participate. nology Graduate Certificate Program at Tufts
• Be aware of your own stereotypes and a post-Doctoral researcher with DevTech.
and biases: Everyone has their own Follow Amanda on Twitter @AASully.
opinions. Remember that young chil-
dren pick up on what you are saying
and doing. Choose your words care-
fully around your young students!
• Expose children to STEM role
models from a range of genders
and backgrounds: Be aware of
what young children are seeing on
an everyday basis in school, at home,
in the media, and in books. Do they
see engineers and scientists who look
like them? Try introducing children to
fictional characters and real-life role
models from STEM fields that repre-
sent a range of genders, backgrounds,
and experiences. Don’t know where to
start? Check out the simple picture
books Rosie Revere Engineer or Ada
Twist Scientist that feature young
girls grappling with STEM concepts.
For a look at real-world women in
STEM, check out Girls Think of Every-
thing: Stories of Ingenious Inventions
by Women and Women in Science: 50
Fearless Pioneers Who Changed the
World.
• Actions speak louder than words:
Your role-modeling matters to the
young children around you. What do
you do when you make a mistake?
Have a question about how something
works? Whether it’s fixing a broken
piece of furniture in your classroom,
building a complicated LEGO model,
or debugging a problem with your
KIBO robot, modeling a sense of sci-
entific inquiry and problem-solving- Copyright ©2019 by Editorial
-and encouraging young girls to do so, Projects in Education, Inc. All rights
too-- can make a lasting difference. reserved. No part of this publication
shall be reproduced, stored in a retrieval
Early intervention can have powerful system, or transmitted by any means,
long-term impacts on the lives of chil- electronic or otherwise, without the
dren. By starting with developmentally written permission of the copyright holder.
appropriate picture books, tools, and
role-modeling, parents and teachers can Readers may make up to 5 print copies of
inspire the next generation of female sci- this publication at no cost for personal,
entists and innovators and help get rid non-commercial use, provided that each
of STEM stereotypes once and for all. includes a full citation of the source.
Dr. Amanda Sullivan, Ph.D. received her Mas- For additional print or electronic copies
ter’s and Ph.D. in Child Development at Tufts of a Spotlight or to buy in bulk, visit
University in the Eliot-Pearson Department of www.edweek.org/info/about/reprints.html
Child Study and Human Development, where
she worked on the research and development Published by Editorial Projects
of the KIBO robot with the DevTech Research in Education, Inc.
Group. Her research centers on engaging girls 6935 Arlington Road, Suite 100
in STEM and understanding young children’s Bethesda, MD, 20814
development of gender stereotypes toward the Phone: (301) 280-3100
technical STEM fields. Amanda is now the as- www.edweek.org
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2011
SEPTEMBER
1 Educ ation
WEEK Spotl
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2012
On Teacher Evaluation
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On Data-Drive Editor’s Note: Assessing teacher
performance is a complicated
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Published February 2, 2011, in Education Week
Editor’s Note:
ndards
tion Week In order to
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Published June best measure teacher Common Core
Schools Find Us
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Editor’s Note: educators
with
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examines ways to assess teaching
data provides ed materials and
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assessments.
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evaluation. the same pace,
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tages of data systems and highlights the
Spotlight
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in which data can curricu
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CONTENTS: ing busin premiums are common core.
INTERACTIVE mance is explod car-insurance
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have to Identification of Teacher It has generated sharp-tongued exchanges in public forums,
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1 Schools Find se for K-12 hold in educa cOntentS:
Data Techniques even more promi slower to take looking an-
the tools show r place- been ts are great at 5 State Group Piloting Teacher pages. And it has produced enough 1 Educators in
for Real-Time hing from teache “School distric ative assess-
Search of
schools, in everyt , doing summ Prelicensing Exam
4 Leading the Charge t prevention. nually at things are
policy briefs to fell whole forests. Common-Core
Resources
ment to dropou iques is but very few
Data statistical techn and looking back, 6 Report: Six Steps for Upgrading But for most of the nation’s 4 Higher Ed. Gets
Use of such er, ments Erlendson, the Voting
rivacy Rules schools, howev g forwa rd,” said Bill Teacher Evaluation Systems teachers, who do not teach sub- Rights on Assessm
6 Proposed Data-P hindered in precol
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Seen as Timely rchers traine assistant superi l District in jects or grades in which value-
by a lack of resea according Unified Schoo 7 Peer Review Undergoing 6 Common Core’s
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7 States Make districts make “Cons iderin to
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Student-Data Techno to education watch array of vives on predictive analyt debate is also largely irrel- 7 Few States Cite
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Crash Predictive analyt me that predic edu-
COMMENTARY:
evant. Now, teachers’ unions, for Carrying Out
8 Surviving a Data ds, such as data don’t drive public e in 10 Moving Beyond Test Scores Standards
statistical metho
’ Gains Traction mode ling, catio n. Mayb content-area experts, and 8 Common Core Published Februa
9 ‘Data Mining minin g and 12 My Students Help Assess Challenges for
Poses
ry 29, 2012, in Educa
ify administrators in many states tion Week
in Education used to ident My Teaching
Preschools
h
COMMENTAR s examining measures that could be Questions
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11 My Nine ‘Truths likelihood of used to weigh teachers’ contributions to cOmmentar
of Common-Core
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a Data-Driven a specific 15 Value-Added: It’s Not Perfect, 11 Standards: A
12 Education as learning in subjects ranging from career and technical Golden
Resources
Enterprise result. But It Makes Sense Opportunity for
K-16
education to art, music, and history—the subjects, Collaboration
Data Rich But Information Poor PAGE 2>
13 RESOURCES: 12 The Commo
n-Core
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17 Resources on Teacher Evaluation Contradiction By Catherine Gewe
RESOURCES: rtz
15 Resources on
Data-Driven s states and distr
reSOurceS: icts begin the
Decision Making mon academic work of turning
14 Resources on standards into com-
Common Core tion, educators curriculum and
searching for instruc-
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www.edweek.org/go/spotlights