Skip to main content

Signor Marconi’s Magic Box – Gavin Weightman *****

Wireless communication is much more romantic than pumping information down a cable. There’s still something exciting about being able to access the internet from a wireless connection – and an even stronger thrill was felt towards the end of the nineteenth century when the shackles of wired telegraphy were removed to allow messages to fly through the ether thanks to Marconi’s work on radio.
All too rare in a popular science book, Gavin Weightman’s Signor Marconi’s Magic Box is a real page turner. It has all the right ingredients to become a Hollywood blockbuster. The young, dynamic Marconi, taking everyone by surprise both in his debonair looks and his command of English (though an Italian, Marconi had an Irish mother and did all his significant work in the UK and the USA). Then there’s the awesome impact of the new technology. The race to conquer huge technical barriers like getting a signal across the Atlantic. The fraudulent and dirty dealing companies that set up to make money out of the wireless boom without the capability of producing decent radio signals. And even a spot of love interest.
If you wanted to be really picky, there’s not a lot of science in the book – the story is driven by pure technology – but having said that, it’s almost a triumph of technology over the scientific knowledge of the day. From what everyone “knew” about “Hertzian waves”, the name at the time for radio waves, they should only be capable of transmission over a mile or two – yet Marconi was soon reaching a hundred and then thousands of miles, with the theory struggling to catch up with the reality that his experimental genius achieved.
What makes the book difficult to put down is the powerful draw of a race. This wasn’t a case of a sole inventor, tinkering away in his workshop. Many others were struggling to get wireless communication working, and Marconi knew it was only a matter of time before some other concern eclipsed his, putting immense pressure on him to achieve in a tight timescale. Though the earliest competitors missed the point, and tried to challenge his patents with devices that used induction to generate a current at the distance of a few yards, Marconi was under no illusion that he had the field to himself, and triumphed thanks to a combination of drive and personal initiative that would have made him a natural for Silicon Valley had he lived in the late twentieth century.
There is one slight moan. Michael Faraday is described as a chemist. Given that all the other remarks about Faraday concern his electrical and electromagnetic work, this seems an odd label. Faraday did make important contributions to chemistry, but it’s surely as a physical scientist that he is remembered.
However this is without doubt a book to treasure on a key development in the history of technology. Until recently Marconi was a well-known name, but as the companies he founded have all but disappeared, so too does Marconi himself fade away in the public consciousness – it’s a good thing this book is hear to keep his name alive.

Paperback:  
Using these links earns us commission at no cost to you
Review by Brian Clegg

Comments

Popular posts from this blog

Roger Highfield - Stephen Hawking: genius at work interview

Roger Highfield OBE is the Science Director of the Science Museum Group. Roger has visiting professorships at the Department of Chemistry, UCL, and at the Dunn School, University of Oxford, is a Fellow of the Academy of Medical Sciences, and a member of the Medical Research Council and Longitude Committee. He has written or co-authored ten popular science books, including two bestsellers. His latest title is Stephen Hawking: genius at work . Why science? There are three answers to this question, depending on context: Apollo; Prime Minister Margaret Thatcher, along with the world’s worst nuclear accident at Chernobyl; and, finally, Nullius in verba . Growing up I enjoyed the sciencey side of TV programmes like Thunderbirds and The Avengers but became completely besotted when, in short trousers, I gazed up at the moon knowing that two astronauts had paid it a visit. As the Apollo programme unfolded, I became utterly obsessed. Today, more than half a century later, the moon landings are

Space Oddities - Harry Cliff *****

In this delightfully readable book, Harry Cliff takes us into the anomalies that are starting to make areas of physics seems to be nearing a paradigm shift, just as occurred in the past with relativity and quantum theory. We start with, we are introduced to some past anomalies linked to changes in viewpoint, such as the precession of Mercury (explained by general relativity, though originally blamed on an undiscovered planet near the Sun), and then move on to a few examples of apparent discoveries being wrong: the BICEP2 evidence for inflation (where the result was caused by dust, not the polarisation being studied),  the disappearance of an interesting blip in LHC results, and an apparent mistake in the manipulation of numbers that resulted in alleged discovery of dark matter particles. These are used to explain how statistics plays a part, and the significance of sigmas . We go on to explore a range of anomalies in particle physics and cosmology that may indicate either a breakdown i

Splinters of Infinity - Mark Wolverton ****

Many of us who read popular science regularly will be aware of the 'great debate' between American astronomers Harlow Shapley and Heber Curtis in 1920 over whether the universe was a single galaxy or many. Less familiar is the clash in the 1930s between American Nobel Prize winners Robert Millikan and Arthur Compton over the nature of cosmic rays. This not a book about the nature of cosmic rays as we now understand them, but rather explores this confrontation between heavyweight scientists. Millikan was the first in the fray, and often wrongly named in the press as discoverer of cosmic rays. He believed that this high energy radiation from above was made up of photons that ionised atoms in the atmosphere. One of the reasons he was determined that they should be photons was that this fitted with his thesis that the universe was in a constant state of creation: these photons, he thought, were produced in the birth of new atoms. This view seems to have been primarily driven by re