This question has shaped my journey more than any other.
Not as a single inquiry, but as a persistent way of thinking—
through questions of why and why not.
They are simple questions.
But they rarely lead to simple answers.
My transition into academia was not just a career decision.
It was a deliberate choice to pursue ideas that may not yet have a clear place.
I have been drawn to environments where new ideas can be tested without immediate constraints—where the goal is not only to follow established directions, but to question whether those directions are sufficient.
Over time, I have learned that progress is not always limited by resources or infrastructure,
but often by how we frame the problem itself.
And that can be changed.
At the center of any meaningful research effort are people.
Students arrive with different backgrounds, different expectations, and different trajectories.
But what consistently matters is not where they begin—it is how they are inspired to think.
Inspiration, curiosity, and persistence have repeatedly proven to be more powerful than constraints.
When these are present, boundaries—whether institutional, geographic, or conceptual—begin to dissolve.
Much of my work has been rooted in silicon.
Not because it is the only option, but because it remains the most trusted and scalable foundation for modern electronics.
At the same time, we continuously explore emerging materials and unconventional approaches—not as replacements, but as extensions.
The goal is not to chase novelty for its own sake, but to understand where reliability, scalability, and innovation can intersect.
Our approach is fundamentally driven by engineering questions:
What is missing?
What is limiting progress?
What assumptions are we making without questioning?
We do not begin with solutions.
We begin with gaps.
And we follow those gaps until they reveal something deeper.
This often leads us to areas where electronics have not traditionally been applied—
and where they may not have been expected to succeed.
The path we have taken has not always aligned with conventional academic metrics.
Work that is focused on engineering translation, manufacturability, and system integration
does not always produce immediate visibility.
But over time, its value becomes evident—through adoption, through collaboration, and through impact beyond traditional boundaries.
Recognition, when it comes, is not the objective. It is a byproduct.
At its core, my work is guided by a simple belief:
Access to information should not be limited by complexity, cost, or expertise.
Electronics, when designed thoughtfully, can serve as a bridge—making information accessible, actionable, and meaningful.
Not just for experts, but for a much broader community.
As the boundaries between physical systems, biological systems, and digital intelligence continue to blur, electronics must evolve.
They can no longer remain:
rigid
isolated
or predefined
They must become systems that:
adapt
respond
and persist
I do not see electronics as static tools.
I see them as systems that can reshape how we experience and interact with the world.
The question is no longer just:
What can electronics do?
But rather:
How should electronic systems exist?