Scientists have their hands full, juggling so many things at once, their decorated careers and an equally colourful life. Let’s peek into the life of Ts Dr Wan Maryam Wan Ahmad Kamil to get to know her better. Dr Wan Maryam was selected to participate in the Lindau Nobel Laureate Meeting in 2019.
What inspired your career in STEM?
What pushed me further into my career in STEM were two important people in my life – my father and my husband – plus the support of my entire family, particularly my mum and both of my grandmothers.
My inspiration initially came from my physics teacher, who always made the subject fun and easy, especially since no memorisation was required. (He created analogies to help us remember formulas/ideas)
What is your educational background, where do you work now, and what interests you the most about your work?
I attended multiple primary schools. Then, I went to SMU(A) Maahad Muhammadi (P) until Form 3, followed by SMKA Tangok, a school in a rural area in Bachok, Kelantan. There, I got 8As for my SPM examination.
After secondary school, Kementerian Pelajaran Malaysia offered me a scholarship to pursue my degree in the UK when I started matriculation.
I accepted the offer and went to Kolej Yayasan UEM to pursue my A-Levels, then continued my degree at the University of Nottingham, UK.
After that, I was offered a fast-track PhD at the same university. At the time, I was offered a position at Universiti Sains Malaysia (USM), where I have been since 2013.
At USM, I built my photoluminescence system using optics and continued my passion for working with light. I manipulate light properties using semiconductor materials and make small-scale lasers (nanolasers) from them.
At the Nano Optoelectronics Research Lab in the School of Physics, USM.
What area of research do you do, and why is it important to society?
I work in nanophotonics, utilising nanomaterials and structures to manipulate light.
Devices are getting smaller and smaller. Now we can transfer information using light; imagine the possibilities when devices work at the speed of light!
Nanolasers are highly sensitive; hence, many of today’s sensors use nanoscale light.
Imagine detecting diseases earlier just by manipulating light! That’s a powerful method with a high potential to save lives. Awesome, right?
What are some of the biggest challenges you have faced in your research, and how did you address them?
The biggest challenge I faced was establishing the research.
As I pioneered experimental work on open-cavity nanolasing in Malaysia, I had to start from scratch, including building the optical system.
Being a pioneer like this requires time, experience, and money. To overcome this, I sought external collaboration with international partners and built my setup in stages.
While waiting for my setup to be completed, I sent my samples to my collaborators to test the lasing emission. Then we published our work internationally together.
Many think scientists only work in labs, but that’s not always true. What do you think of this perception? Where have you done the research for your work, or where have you worked in the past?
In my field, indeed, I work primarily in a lab. What’s awesome is that I work in labs worldwide through my international collaborations and learn about their setups and work culture. Plus, I get to visit different countries too!
Spending my time working with optics at National Cheng Kung University, Taiwan.
Working with a complicated setup at Southampton University, UK.
With supporting personnel in Australian National University during my postdoc attachment.
Research group of Prof Jagadish and Prof Hoe Tan at Australian National University.
My family and my PhD supervisor, Prof Tony Kent, attended my PhD graduation at Nottingham University, UK.
With Prof Boon S Ooi’s group during research attachment at the King Abdullah University of Science and Technology (KAUST), Saudi Arabia.
My Undergraduate Graduation photo at the University of Nottingham, UK.
Can you share any interesting or funny stories while pursuing your research?
This is how I got the nickname “optics slayer”.
“When I was in the first year of my PhD, I was given the task by Professor Andrey Akimov to attach a lens to a two-axis lens holder. So I started removing some screws at the front of the lens holder.
It was supposed to be a simple task: remove an O-ring, insert the lens, and put the O-ring back.
Unfortunately, the screws held small springs in the lens holder, and I couldn’t put it back together. Looking at the destroyed lens holder, my supervisor gave me the nickname ‘optic slayer’.
Since then, I’ve built complicated optical setups and no longer repeat my mistakes with optical components. I have evolved to become the optics master!”
What motivates you when you feel “down,” and how do you come back stronger & more enthusiastic at work? What do you find most rewarding about your job?
Failure in experiments is normal. The important thing is to learn from that failure – what went wrong? Can it be improved? Should I have used a different material? The key is to keep exploring the new knowledge and experience you gain.
During my PhD, I spent six months in a clean room in a full clean-room outfit (like an astronaut) to build my device.
I was frustrated that I could not get it to work. It even got to the point where my supervisor asked if I wanted to change direction.
However, I decided to try one last time, taking one step at a time. In a way, this was to ensure each step of the device processing was going well.
Finally, I got a working device and published it in a reputable journal – Nature Communications!
What advice would you give young people interested in pursuing a career in STEM?
Go for it! It feels awesome when you complete your research. Having contributed to knowledge is truly satisfying.
What skills do you think they should develop?
Beyond basic scientific skills, presentation skills matter just as much because they boost self-confidence. The rest comes down to passion and grit.
What areas will be most exciting to explore in the coming years?
Nanophotonics! Light at a very small scale is becoming increasingly important, especially in the biomedical and semiconductor industries. 🐝
