Curiosity First: How Aman Kushwaha Is Reimagining Education by Building the Institute He Once Needed
“Education should not begin with answers. It should begin with curiosity.”
— Aman P. Kushwaha, Founder, Curiosity Flow Institute of Learning
Some entrepreneurs build businesses because they identify a market opportunity.
Others build them because they have lived through a problem they refuse to let the next generation experience.
For Aman P. Kushwaha, founder of Curiosity Flow Institute of Learning, education was never just about scoring marks. From childhood, it was about understanding the hidden principles behind the world.
Long before he entered a classroom as a teacher, he was the child who could never stop asking why.
Why does electricity behave the way it does?
Why do two wires produce sparks when they touch directly, yet the same current can safely pass through a bulb or a fan?
How does light travel?
Why do magnets attract?
How do machines think?
Those questions were not part of homework. They were part of everyday life.
A Childhood Built on Curiosity
Unlike many children who carefully protected their toys, Aman often took them apart.
Not because he wanted to break them.
Because he wanted to understand them.
Toy cars became engineering puzzles.
Remote-controlled gadgets became lessons in motors, gears, batteries, switches, and circuits.
Every broken toy revealed something new.
“I wasn’t interested in destroying things,” Aman recalls with a smile. “I wanted to know what was hidden inside. I wanted to understand how something worked, not just use it.”
His curiosity extended far beyond toys.
Electrical components fascinated him.
He collected motors, wires, switches, LEDs, and discarded electronic parts, experimenting with simple circuits and asking questions that most children never considered.
When he saw sparks jump between two wires, he wondered why they appeared only under certain conditions.
When electricity powered a bulb safely, he wanted to know what had changed.
Every answer led to another question.
Every question opened another door.
Looking back, Aman believes those moments quietly shaped the person he would become.
Falling in Love with Science
As he grew older, curiosity evolved into obsession.
Books became gateways to entirely new worlds.
One of his favorite companions was Microsoft Encarta, the digital encyclopedia that introduced millions of students to science before online learning became common.
Hours disappeared as he explored articles about physics, astronomy, chemistry, biology, inventions, and great scientists.
Eventually, Encarta was joined by another endless classroom: Wikipedia.
Whenever a new scientific idea captured his attention, he followed one article after another, often spending entire evenings learning simply because he wanted to know more.
“It never felt like studying,” he says. “It felt like exploring.”
Among everything he encountered, one place captured his imagination more than any other.
CERN.
The idea that thousands of scientists from around the world had built one of humanity’s most sophisticated scientific instruments beneath the ground fascinated him.
The Large Hadron Collider was more than a machine.
It represented what human curiosity could accomplish when people worked together to answer fundamental questions about the universe.
From there, Aman immersed himself in concepts that many students encounter only much later—Einstein’s theory of relativity, quantum mechanics, quantum entanglement, cosmology, particle physics, and the search for answers about the nature of reality itself.
While others viewed science as another school subject, he viewed it as humanity’s greatest adventure.
“I always wanted to become a scientist,” he says. “I dreamed of discovering something the world didn’t know yet—something original that could contribute to humanity’s understanding of nature.”
The Classroom That Changed Everything
When Aman entered coaching classes during his own education, he expected to find the same excitement he felt while studying science on his own.
Instead, he experienced something very different.
Lessons often revolved around solving questions rapidly.
Concepts were sometimes assumed rather than carefully developed.
Students learned procedures but not always the principles behind them.
For someone driven by curiosity, that approach felt incomplete.
“I remember trying hard to understand,” he says. “But many times I couldn’t connect with what was being taught. The class moved ahead before I understood the basics.”
Eventually, he noticed something surprising.
He began feeling sleepy in class.
“It wasn’t because I disliked science,” he explains. “I loved science. I simply couldn’t stay engaged when I didn’t understand what was happening.”
The experience taught him a lesson that would shape his future philosophy:
Students lose interest not because they dislike learning—but because learning stops making sense.
That realization never left him.
Building the Institute He Once Needed
Years later, Aman made a promise to himself.
If he ever became a teacher, he would never allow students to leave his classroom carrying the confusion he once felt.
That promise became Curiosity Flow Institute of Learning.
The institute did not begin in a large commercial building.
It began at home.
With a simple mission.
To make children fall in love with learning again.
Curiosity Flow was built around one belief:
Every child can understand when taught with patience, clarity, and the right approach.
Whether a student learns through diagrams, demonstrations, stories, experiments, animations, discussions, or repeated explanations, the responsibility lies with the teacher to find the path that works.
“If one explanation doesn’t help,” Aman says, “then I change the explanation—not the expectation.”
Teaching Every Child
At Curiosity Flow, the objective is never to identify the smartest student in the classroom.
The objective is to ensure that every student understands.
The child who learns quickly.
The child who asks dozens of questions.
The child who is shy.
The child who struggles.
The child who has begun believing they are “weak.”
Each one deserves equal patience.
Each one deserves to be heard.
Each one deserves the opportunity to succeed.
Lessons combine conceptual discussions, practical demonstrations, experiments, smart-board technology, visual learning, interactive questioning, and real-world applications.
Science is experienced.
Mathematics is understood. Learning becomes enjoyable rather than intimidating
