One of the common mantras from educational speakers like Sir Ken Robinson is that schools don’t change. That schools are stuck in some dystopian nightmare of a Dickenesque factory which is not keeping up with the demands of the 21st century. It is true that many things may have remained the same in education but one thing that is new is the introduction of artificial intelligence (AI). AI is a wide-ranging branch of computer science concerned with building smart machines capable of performing tasks that typically require human intelligence. In order for machines to perform such tasks, they have to learn – machine learning. This requires data, lots of data. We now obsess about data, to provide evidence of learning that has occurred in a classroom and predict effective actions to improve learning outcomes for our learners.
The Link between Data and Artificial Intelligence
This data has divided educationalists. In one group lies those who believe that making student performance data accessible leads to teacher accountability and evidence-based teaching allowing improved outcomes for learners. Others reject the use of such data as an overly simplistic approach and not a true reflection of the complexities associated with teaching and learning. They argue that the numbers are often based on basic statistics and analysis of the data, rather than accepting that learning is a human endeavour and emotions also drive learning not just numbers. That the data you use bias the conclusions the AI develops.
For advocates, the collecting, analysing, storing, and communicating of massive amounts of data about schools, teachers, and students is important to monitor progress and see where improvements can be made. This information is known as “big data", Big data represents data characterized by such a high volume, velocity, and variety to require specific technology and analytical methods for its transformation into value. Big data is the way Facebook users, without their knowledge or consent, can be manipulated through personalising their social media feeds. That was possible because of Facebook’s then relatively lax privacy protocols.
This is illustrated by the global OECD's Program for International Student Assessment (PISA) results which is one of the best-known examples of Big data in education. PISA measures reading, mathematical, and scientific literacy of 15-year-olds around the world.
The PISA AI algorithm suggests that student attainment is higher in more equitable education systems. What we need to keep in mind is that this statement expresses that student attainment (quality) and equity (strength of the relationship between student attainment and personal or social circumstances such as gender, income, ethnic origin, or family background) happens at the same time. It doesn’t mean, however, that one variable would cause the other. Correlation is a valuable part of the evidence in education policy-making but it must be proved to be real and then all possible causative relationships must be carefully explored. So then with this in mind, are changes based on Big data really improving teaching and learning in schools and classrooms?
It is agreed that decision-makers in education, be they teachers to ministers of education need to gain a better understanding of what good teaching is and how it leads to better learning in schools. This is where information about relationships and stories in schools becomes important. This is known as “Small data”. The term "Small data" comes from Martin Lindstrom and his book, "Small Data: The Tiny Clues That Uncover Huge Trends." Lindstrom defines Small data in the business context as:
"Seemingly insignificant behavioral observations containing very specific attributes pointing towards an unmet customer need. Small data is the foundation for breakthrough ideas or completely new ways to turnaround brands." and "What is data without humanity?"
In education, this is what's going on behind classroom doors and across the school. This is where Small data such as observations of students' behaviour and social interactions, and the assessment of their emotional well-being can help. These Small data points are often hidden in schools. Understanding these Small human interactions must become a priority for improving education. There are other clues hidden behind classroom doors that can have a big impact. Thirty years of research shows that classroom management is rated first in impact on student achievement. Further, one of the most important factors that contribute to successful classroom management is high-quality teacher-student relationships. In a 2003 meta-analysis of more than 100 studies, Robert J. Marzano and Jana S. Marzano found that:
"on average, teachers who had high-quality relationships with their students had 31 percent fewer discipline problems, rule violations, and related problems over a year's time than did teachers who did not have high-quality relationships with their students."
Clearly, we need to be paying attention to more than Big data in the classroom. This means that tracking and managing small data is no longer simply a "nice-to-have" capability; it is a "must-have" to create a classroom culture and a school culture that is truly conducive to learning.
There is no one right way to gather small data in education. However, it is important to realize the limitations of the current Big data-driven policies and practices. Too strong reliance on externally collected data may be misleading in policy-making. Easing the process of data collection and using a consistent system of recognizing both positive and negative student behaviour with clear guidelines can help establish better balance and uniformity across Small data. Schools need to acknowledge and understand the important role that Small data can play in student learning and communicate this to everyone involved in education. So what does Small data look like in practice?
To begin with, it would reduce the number of national assessments required and the time and resources that are saved could be used to enhance the quality of formative assessment in the classroom. Formative and portfolio-based assessments are much more likely to improve the quality of student outcomes than conventional standardized tests.
Teachers would be given more autonomy and independence from paperwork and meeting assessment deadlines and instead could invest in collaboration of best practice between and in schools, developing connections between educators and enhance student learning.
The classroom would become more student-focused and less assessment-driven as students become involved in critiquing and reflecting on their own learning. As the quote often misattributed to Albert Einstein says:
“Everybody is a genius. But if you judge a fish by its ability to climb a tree, it will live its whole life believing that it is stupid.”
There are many ways students can show learning in schools, so there is no one way of measuring student achievement that will reveal success. Students’ voices about their own growth maybe those tiny clues that can uncover important trends in improving learning.
The Importance of Small Data
In conclusion, AI driven by Big data has certainly proved useful in driving global educational reform in recent years by informing us about correlations that have occurred in the past. But to improve teaching and learning, we need to focus on the present and those causations present in diversity and beauty that exists in our everyday classroom interactions - Small data. A good education should be based on the collective human judgment that is supported by a plethora of evidence a combination of both quantitative and qualitative. If we don’t start leading through Small data we might find out soon enough that we are being led by AI driven by Big data and the spurious correlations that it generates and the hole in student success that AI cannot predict and simply can't fill.
About the Author
Dr. Michael Harvey is a New Zealand born senior physics and chemistry educator currently teaching in Malaysia. He is a MIEExpert, Flipgrid Global Ambassador, Wakelet Ambassador, Apple Teacher and Level 2 Google Certified educator. He is also the ISTE global PLN event chair and also teaches online with the Kakuma refugee project and the Roots and Shoots program in Tanzania. His educational research interests are the use of digital animations to enhance student understanding of complex abstract scientific concepts and linking this to cognitive psychology. He is committed to the use of technology to develop global collaboration between learners and educators and the use of evidence to inform teaching practice.