Careers rarely develop the way we plan them. Our career path often takes many twists and turns, with particular events, choices and people influencing our direction.

We asked Liam Dowling from St. Michael's House to give some advice for people considering this job:

Liam Dowling

Clinical Nurse Manager 2

St. Michael's House

Read more

Liam Dowling

Do your homework, ask about it - there is lots of infomation out there.  You need to be person centred, social, not afraid to mix and to have an understanding of disability or at least be prepared to learn about it. 

People with an Intellectual Disability  ARE NOT SICK , but they can get sick like everyone else and sometimes I feel people outside don't fully understand this. They don't just need Gods help. They need the help of qualified people that want to understand them so that their needs are met and they have chance to enjoy their life as much as is possible.

Close

Investigative?
Investigative
The Investigative person will usually find a particular area of science to be of interest. They are inclined toward intellectual and analytical activities and enjoy observation and theory. They may prefer thought to action, and enjoy the challenge of solving problems with clever technology. They will often follow the latest developments in their chosen field, and prefer mentally stimulating environments.
All Courses
PLC Progression Routes
PLC Points Calculator
CAO Points Calculator
CAO Video Guide

Colaiste Dhulaigh College of Further Education
Ballyfermot College of Further Education
Galway-Mayo IT - GMIT
Career Interviews
Sector Profiles
School Subjects (LC)
College Courses
Close
Study Skills
Other
Work Experience (School)
CV & Interview Preparation

Featured Article

logo imagelogo image

Return to List



A day in the life of a Physics Lecturer

"The lab is a hive of activity with a number of experiments running" - Síle Nic Chormaic, Physics Lecturer 

First job of the day – ensure I am in the right place! I work both as a lecturer in the Physics Department at University College Cork and conduct research in the Photonics Centre at Tyndall National Institute - juggling two locations takes a lot of forward planning.

Most days, I concentrate on teaching activities in the morning and then head to Tyndall in the afternoon to meet with my team of researchers that makes up the Quantum Optics Group. 

This morning I am with a large group of budding engineers giving a lecture on mechanics.

All our final year students conduct research projects as part of their degree programme. Today, after the lectures, I spend a couple of hours helping to bring together compatible students, projects and supervisors. 

The match is important to make sure that the student has an enjoyable experience, learning new skills that he or she will use in the workplace or if they choose to study for a higher degree such as an MSc or PhD.

Once teaching is over, I head to the research laboratory to see how things are going there.

The lab is a hive of activity with a number of experiments running. In one experiment we have a really complex optical and vacuum setup where we cool rubidium atoms down to 50 microKelvin using a technique known as laser cooling. 

This allows us to study the quantum nature of atoms - a very hot topic in physics as a quantum revolution is taking place. Tried and tested theories are now being used to realise a host of quantum-based technologies such as computing, sensing and information security. 

There’s so much instrumentation being used for the laser-cooling setup that it is quite daunting and a real challenge to master. 

We use a very expensive and delicate infra-red laser system for this experiment: the laser beam consists of a stream of light particles known as photons. We shine the laser onto rubidium atoms and, on collision, each photon removes some energy from each atom. This slows each atom down, thereby reducing the average temperature of the atoms.

In another experiment we explore novel types of laser systems, known as microlasers due to their size. 

The microlasers we use are about the size of a speck of dust and can often be confused with just that! When working, they emit bright green light because of the materials they are made of (glass doped with erbium ions). 

These microlasers can be used for a lot of different purposes and need to be pumped optically in order to emit the green light. 

One exciting use of these lasers is as miniature mechanical systems for switching devices in optical circuits. To make the microlasers we shine light from a very powerful CO2 laser onto some glass powder to melt it – when the CO2 laser is on we have to be very careful since it could immediately burn a hole in human flesh or cause blindness.

I need to organise a trip for myself and one of my research students to visit our collaborators in Germany and Austria next month. 

The research group meet to discuss who should travel and the benefits to the people involved- there are usually more volunteers than places so this is a tough decision to make.

At 4pm I’m off to meet a visiting US professor who is giving a talk on “50 Years of the LASER” to celebrate the laser’s historic birthday since it first come into operation in 1960. 

This is part of a series of seminars for all the staff and students, which I organise, so I’m delighted to see a good turn out.

7pm and time to leave. I list all the jobs to be tackled tomorrow and send e-mails to the researchers to make sure they know what to do. 

Another work day is over and I’m off to the gym to relax.

Síle Nic Chormaic ~ www.iopireland.org 

 
 

Article by: Síle Nic Chormaic ~ Institute of Physics Ireland