Something about Dundee helps pioneers to flourish

Throughout the centuries, scientists have found Dundee is a place that has allowed ideas to flourish.

James Bowman Lindsay, for example, is remembered as a man of vision.

Among the innovations that can be traced back to his work are the incandescent light bulb and submarine telegraphy.

Born near Arbroath in 1799 into a farming family, he showed academic promise and managed to study mathematics and physics at St Andrews before taking up a position at the Watt institution as a lecturer in mathematics.

Only six years later and decades before Edison announced the invention of the lightbulb, Lindsay demonstrated electric light, which was inspired by his desire to see safer working conditions in the city’s sometimes perilous jute mills.

Lindsay was also a pioneer of wireless telegraphy through water, another idea that was developed following his death in 1862.

Dundee-born physicist and engineer Sir James Alfred Ewing was only seven years old when Lindsay died and went on to spearhead work in the magnetic properties of metals.

Ewing had been educated at the High School of Dundee before studying physics at Edinburgh and graduating in engineering.

He was recruited to Tokyo Imperial University, where he was instrumental in founding Japanese seismology as professor of mechanical engineering.

After five years, in 1883, he returned to his home city to become the first Professor of Engineering at University College, Dundee.

Like Lindsay, he was appalled at the conditions in which his fellow Dundonians lived and worked to improve amenities such as the sewerage system.

Ewing gave his name to the building that bears his name in the School of Engineering.

One of the greatest pioneering partnerships to have worked at the University of Dundee must be Professor Peter Le Comber and Walter Spear.

The men met while Spear was in post at the University of Leicester and Le Comber one of his brightest students.

When Spear moved to the University of Dundee in 1969 to take up the Harris Chair of Physics, Le Comber came to work alongside him and together they established the Carnegie Laboratory of Physics to study non-crystalline solids.

The work the men carried out in the 1970s was in the development of amorphous silicon.

This in turn led to the creation of the amorphous film silicon transistor and it was this innovation that directly led to the LCD technology that would revolutionise how we live.

That technology is now a huge part of our everyday lives in mobile phones, computer monitors, flatscreen televisions and solar panels.