The Forth Bridge… deceit, disaster and design

It’s 1853, three years after Thomas Bouch launched his ‘floating railway’ over the Firth of Forth. But – though trains are now being ferried over the river – Bouch is disappointed and frustrated.

Why is he dissatisfied? There are fundamentally two reasons.

First, ferrying trains is not a great solution. Certainly Bouch’s employers in the Edinburgh and Northern Railway are happy – they’ve launched a similar ferry to cross the other east coast estuary of the River Tay. But the ferries carry only a train, not its carriages. That makes everything awkward. Here’s what happens for a train leaving Edinburgh and going north:

– leaves its first carriages on the south shore of the Forth

– gains its second carriages on the north shore of the Forth

– leaves its second carriages on the south shore of the Tay

– gains its third carriages on the north shore of the Tay.

Only after all that does the train have an uninterrupted journey north to Aberdeen. All the transitions before that are time-consuming and logistically complicated.

Second, ferrying is also a horrible experience for passengers. Think how the journey just described is for them. Trains are unheated so they arrive at the Forth already chilled, stand on a pier as the wind whips off the water, clamber on board a ferry which has no shelter for passengers, so they huddle beside the train or boxes or carts while the ferry sails through rough seas. Then they do it all again when they get to the Tay. They’re frozen, miserable and frightened. They’ve occupied three different sets of carriages, walked down or up four piers, and stood on open decks across two wide estuaries. No-one thinks this is a good experience.

Bouch agrees. There’s a centuries-old saying that you can’t make a silk purse out of a sow’s ear – if something is fundamentally bad you’ll never make it wonderful, no matter what you do. His ferries are better than nothing, but they’ll never be a good solution to crossing the east coast of Scotland estuaries.

Bouch is also frustrated. His goal and his passion is to build bridges over the rivers Forth and Tay, not organise a ferry service. Bouch had a self-confidence which some would consider arrogance. And a boldness many would think reckless. That’s before mentioning his super-abundance of ambition and determination.

Rather than sticking to a diet of dissatisfaction, in 1853 he informs his employers, now called the Edinburgh, Perth and Dundee Railways Company, that he wants to build a bridge over the Tay. They don’t take long to answer him. Bouch gets a near-instantaneous ‘no’, and he’s told his idea is insane. Bouch is not in the least happy with that response. Soon after he resigns and establishes his own consultancy firm.

The next few years saw two trends among rail companies: the amalgamation of firms and fierce competitiveness between them to establish the best route north. Then Bouch’s old company was consumed by the North British Railways Company, and Bouch believed new leadership meant new opportunity. He knew the company was desperate to improve the northern route, so in 1860 he approached the North British directors promising he could build bridges over both the Forth and the Tay.

This time Bouch is not rebuffed. It’s a new and more optimistic age, and Bouch leaves with a commission to put his plans on paper.

For the Firth of Forth Bouch planned a lattice-girder bridge. Gardeners know about training plants up a wooden or plastic lattice structure. A lattice bridge is fundamentally the same, a criss-crossed web design, strong and resistant to bending. Perhaps the most famous lattice structure is the Eiffel Tower in Paris.

Bouch’s design was not a problem, but his proposed location was. The river between North and South Queensferry was too deep, so Bouch planned to build his bridge five miles upstream where it was shallower. However, there was a problem. Yes, the depth from surface to river bed was shallower, but below that river bed was more than 200 feet (61 metres) of mud. Mud could not support the piers of a bridge.

Or could it?

At the end of the last blog, I asked if there was ever a serious proposal for bridge supports simply to float in the river. Bouch’s proposal was almost that.

Bouch wouldn’t be stopped by 200 feet of mud on the river bed. He pressed forward with a plan for a two-mile bridge held up by 61 stone piers. Those piers would not sit on rock but on mud. His logic was like this: think of walking on wet sand – your footprints press down but they don’t keep sinking because the sand compresses and holds you up. Bouch’s piers would so compress the mud that the piers would sit – or float – firmly in place.

Convinced? Bouch was, but many were not. Not for a bridge set in a tidal estuary where the water was never still, and, on stormy days, would experience turbulence above and below the surface. An official enquiry studied his plans, and asked hard questions. But Bouch stood firm, showed great confidence, and argued his bridge would stand strong. Remarkably Bouch was given a ‘green light’ and in 1866 a beginning was made.

Work started in June and in August it was stopped. Because of new concern about the design? No – it stopped because of financial deceit. For some time the accounts of the North British Railway Company had been falsified to show profits which never existed. The books had been misrepresented, well and truly cooked, and the company was actually in serious financial trouble. Shareholders were up in arms. One day company directors turned up at the Forth, ordered that work stop immediately, and the builders’ employment was terminated with immediate effect.

Once more Bouch was thwarted. He was about to bridge the Forth, and suddenly he wasn’t. The disappointment was enormous.

However, Bouch was Bouch. Though he was down, he was certainly not out.

In the last blog, I also said we’d find out why Thomas Bouch was hired and then fired. That story comes next.

The action now moves 40 miles north, to the River Tay.

The North British Railway Company is being revived under a new chairman, John Stirling. In 1864, with Bouch at his side, Stirling asks officials in Dundee to provide financial support for a bridge over the Firth of Tay. They agree, and work begins in 1871. (I told the story of the Tay Bridge in an earlier blog. You can find it among those posted here: https://occasionallywise.com/2021/10/).

Bouch was not only responsible for the design of the Tay Bridge, but for its manufacture, construction, and maintenance. Everything was under his control.

But the work at the Tay did not get Bouch’s sole attention. By 1873 he had a new design for a bridge over the Forth. This bridge could be built over the deep water between North and South Queensferry because it would be a suspension bridge, with one of its towers securely anchored on Inchgarvie island, approximately half way across the river. (There is a map showing Inchgarvie island in my last blog.) The towers of the bridge would be 600 feet (183 metres)  high, with 1600 foot (488 metre) spans in either direction from the centre tower. Steel chains would hold two railway tracks.

Design of Bouch’s suspension bridge.
Attrib: Wilhelm Westhofen, Public domain, via Wikimedia Commons

But there was new concern about this design, this time not about the foundations but the ability of the bridge to withstand wind pressure. Experts gave cautious support, but they would not say this was the best possible design. Despite the concerns, the official Act permitting construction was passed in 1873, and a consortium of railway companies formed The Forth Bridge Railway Company to build the bridge.

At first nothing happened. For one thing there was insufficient money to build. For another, the attention of the North British company was on the Tay Bridge’s construction. No work took place at the Forth until September 1878 (four months after the official opening of the Tay Bridge). Mrs Bouch laid a foundation stone, and by the next spring brickwork appeared on the western edge of Inchgarvie (and can still be seen today).

And not much more was ever done. On a late December evening in 1879 an immense gale blew through the Tay estuary. The northern-bound evening train made its way on to the Tay Bridge. As it passed through the central high girders the pressure against the bridge and the train collapsed that whole section, and every person on the train, some 75 people, perished in the waters of the Tay. What happened that night has been known around the world as the Tay Bridge disaster.

An official Court of Enquiry into the disaster began work just six days later, and took only a few months to present its report. The cause, they wrote, ‘was the pressure of the wind, acting upon a structure badly built, and badly maintained.’ Later they concluded, ‘For these defects both in the design, the construction, and the maintenance, Sir Thomas Bouch is, in our opinion, mainly to blame. For the faults of design he is entirely responsible.’[1]

Bouch disagreed with the Enquiry’s findings but, fairly or unfairly, his opinion didn’t matter. He was disgraced as a bridge designer and builder. A broken man, Bouch became a recluse, and died of ‘stress’ in October 1880. He was just 58.

Some work had continued at the Forth before the Tay Bridge Court of Enquiry report was issued. But now public opinion turned against Bouch, and pressurised The Forth Bridge Railway Company to abandon Bouch’s suspension bridge design. The majority view of public and press became one of doubt that any bridge over either estuary could be safe. All work at the Forth stopped in January 1881, and an Act of Abandonment began its passage through Parliament.

But the case for a bridge was still compelling – not least because rail companies stood to make great profits. If Bouch’s bridge could never be built, then a different design from a respected engineer might succeed. The railway companies asked engineers who knew Bouch’s plans, and knew the challenges of bridging the Forth, to consider options. One of these experts was John Fowler, who, with his partner, Benjamin Baker, had built bridges across the Severn estuary (which divides the west of England from south Wales). These highly qualified engineers believed a bridge at the Forth could be done. With no time to lose, financial and legal steps were taken, and the Abandonment Bill was withdrawn before it could finally pass and become law.

Work on the previous bridge had ended in January 1881 and Fowler and Baker laid a new plan before railway companies less than nine months later. It took only two hours for the companies to accept their proposals, and work began on preparing a new Parliamentary Bill. That Bill passed easily because the engineers were highly regarded and government inspectors validated their plans. The Bill went through all its stages and was given Royal Assent on 12th July, 1882. At last there was a realistic design.

The original (above) and final design for the Forth Bridge.
Attrib: Wilhelm Westhofen, Public domain, via Wikimedia Commons
John Fowler, Consulting Engineer
Attrib: Lock & Whitfield (?)., CC BY 4.0 <https://creativecommons.org/licenses/by/4.0&gt;, via Wikimedia Commons

But there was still widespread fear whether any bridge over the Forth could be safe. Therefore approval came with many stipulations about its strength, and included rules requiring inspection of construction work by the Board of Trade four times a year. The completed bridge had to be secure, but the incomplete structure must be equally secure at every stage. Parliament specified that this must be the biggest, strongest and stiffest bridge in the world. It must have maximum rigidity downwards under the weight of trains and sideways to withstand wind pressure. Only the best of materials should be used. In addition, the Admiralty required that a bridge must not restrict shipping (the Rosyth naval dockyard lies only a short distance upstream). Murray, in his book The Forth Railway Bridge, writes: ‘The concern and caution of the engineers, combined with these restrictions resulted in the finished installation being at least twice as secure as it needed to be’.[2] (As I wrote before, I’m happy to acknowledge the help Murray’s book has been in providing detail not available elsewhere.)

Benjamin Baker, designer
Unknown author, Public domain, via Wikimedia Commons

In the end three men were crucial for the design and construction of the Forth Bridge. The two designers have already been mentioned: Benjamin Baker, the designer, and John Fowler, the consulting engineer. The third would be responsible for actually building the bridge. His name was William Arrol, a construction engineer. His business base was only 40 miles away in Glasgow.[3] All three of these men were knighted shortly after the Forth Bridge opened.[4]

William Arrol, Building contractor
Attrib: Wilhelm Westhofen, Public domain, via Wikimedia Commons

The design Fowler and Baker presented was for a three tower cantilever-truss bridge. More on what those terms mean next time. As well as drawings, they presented a 13 foot (almost 4 metre) model of the bridge to Parliament. All those who found construction drawings hard to follow – the vast majority – were entranced by the model. It was soon put on show to the public.

Today, since the Forth Bridge has stood strong for more than 130 years, it seems strange that opinion was divided on whether this bridge would last. Even the Astronomer Royal wrote to The Times newspaper asserting a gale less than had blown down the Tay Bridge might destroy this Forth Bridge. Spectators stood in lines to see the bridge model, and Fowler and Baker were constantly interviewed about its safety.

Finally Fowler and Baker had a photo taken to illustrate the stability of a cantilever design. Two men (many suppose they were Fowler and Baker themselves) sat on chairs, with arms extended supporting a plank on which sat Kaichi Watanabe, a Japanese apprentice of the firm. Behind them was an illustration of the bridge. As well as their arms they used broomsticks. The men represented the bridge towers, and piles of bricks represented the far ends of the bridge. Kaichi’s weight created compression, with every part of the arrangement supporting the rest. It was all stable.[5] Fowler and Baker were not just engineering experts but superb publicists. The photograph was published in newspapers around the world, convincing many about the bridge’s stability. The photo still features on postcards today.

I’ll stop here. The design work is done and approved, and the next blog will cover the remarkable story of the bridge’s construction.

Before finishing, three things have stood out for me from what’s been covered this time.

First, because someone is sure they’re right doesn’t prove they are. I have some sympathy for Thomas Bouch. He was a visionary who never stopped trying. But I suspect he was also too great a salesman, persuading people his ideas were sound when, very possibly, they had doubts. Did they really believe a bridge resting on mud was a great idea? I suspect not. Corrupt finances halted that plan but Bouch returned later with a different design. Why not the original? Might he have always been uncertain about a bridge resting on a bed of mud? Yet he’d persuaded everyone to let him build it just seven years earlier. A great salesman can sell a bad idea. Wisdom lies in recognising what’s bad and refusing it.

Second, the futures we envisage can suddenly change. Bouch had a bridge complete and operating over the Tay, and another just beginning across the Forth. Surely disappointments were all in the past? Then the Tay Bridge collapsed, he was discredited and all he had done and all he might one day do was changed. He never recovered. For others – especially Fowler, Baker and Arrol – the day of opportunity suddenly dawned, and their names have gone down in bridge-building history for their work on the Forth Bridge. There’s no place for either uncertain optimism or uncertain pessimism about the future.

Third, getting the brilliant best pays off in the long-run. The Forth Bridge met all the conditions laid down for it. It’s a marvel of design and construction. Recent inspections have shown it’s still in excellent condition. I’ve detailed many earlier attempts to bridge the Firth of Forth. None were built. The best was worth waiting for, the Forth Bridge.

Lastly, there are points I raised last week which are not yet addressed:

  • The surprising reason so many construction workers died.
  • When painters reached the bridge end, they began painting again at the beginning – true or false?

We’ll get to those. But here’s one more:

  • How did men work under water (without diving suits of any kind) building the piers on which the bridge rests?

I’m learning a lot, and I hope you are too. More to come.


[1] The official report can be found at: https://www.railwaysarchive.co.uk/documents/BoT_TayInquiry1880.pdf The extracts quoted are from pages 41, 44.

[2] Murray, A. (1983/1988) The Forth Railway Bridge A Celebration, Mainstream Publishing Company, Edinburgh.

[3] Arrol’s business was eventually called Sir William Arrol & Co., and among its many other major construction projects are these: the replacement Tay Rail Bridge (1887), Tower Bridge in London (1894), Forth Road Bridge (1964), Severn Bridge (1966).

[4] Further fascinating information about these three men can be found here: https://www.theforthbridges.org/forth-bridge/history/the-bridge-builders

[5] Knowing little about engineering, I may have explained Fowler and Baker’s illustration poorly. It was, thankfully, sufficiently convincing to the public of their day.

The Tay Bridge disaster

I can’t imagine what it’s like to design, construct and supervise a world leading structure, receive wide praise and recognition, and have it fail causing dozens of deaths 19 months later. Thomas Bouch knew exactly what that was like.

I learned about the Tay Bridge disaster when I was very young. I grew up in Fife, and to get to Dundee we went north by train crossing the River Tay estuary on the 2.75 mile long Tay Bridge.

Aged less than seven, I looked out the train window and down to the water, and asked ‘Why are there stone blocks in the water alongside our bridge?’

My mum explained, ‘Those large blocks held up the first bridge. But it fell down.’ That wasn’t an encouraging answer, but I wanted to know more. And I’m still interested today.

In this blog I’ll tell the story of what happened to the original Tay Bridge. This is a different kind of blog to most. It’s longer, because the story can’t be told properly without detail. And why things went so terribly wrong is a lesson or warning for all of us.

But if it’s too much, you’re about to be given a shortcut.

Construction

I’m about to provide considerable detail about the construction of the bridge, including failings that likely caused its downfall. Not everyone will have time or will wish to read this. If so, pick up the story again in the section headed ‘Collapse’.

The River Tay flows into the North Sea just east of Dundee. Its estuary is wide with fast flowing currents and strong winds. To bridge across the river near its mouth would be a massive engineering feat.

Thomas Bouch

Proposals were drawn up in 1854, but nothing done. In the 1860s, however, two rail companies rivalled each other for the route to the north east. The key to success was building a bridge over the River Tay. The North British Railway Company got approval to do that, and they appointed a noted civil engineer called Thomas Bouch. He was 49, and already experienced with major railway projects in both Scotland and England. The whole contract – design, construction and ongoing maintenance – went to him. In 1871 work began.

From earliest days Bouch’s design was criticised. The bridge would be only single track so traffic capacity would be low. The centre section needed to be built high above water to allow ships to pass underneath. Bouch’s tall and slim design appeared to lack stability.

Problems soon emerged once construction started. Bouch’s design specified piers (on which the bridge would rest) of solid masonry and brickwork. But 15 piers out from the south side, the borers who dug into the next part of the river bed found the underlying material insufficient to hold the weight of solid piers. They would shift or collapse. So Bouch redesigned these piers to be lighter and wider. Above water level, instead of masonry there would be slender cast-iron columns. He made another change: originally the centre of the bridge was to have fourteen 61-metre spans, but finally he settled on thirteen 65.5-metre spans (the gap between piers).

Three other issues are worth mentioning.

The foundry  Bouch built a foundry at Wormit, immediately beside the south end of the bridge. That was a good idea – hardly any distance was involved in transporting the iron. But numerous reports described low-quality iron emerging from that foundry – inconsistent in shape and inconsistent in quality.

The height necessary to allow vessels to pass  For most of the bridge, girders ran under the rails. But those low girders reduced the height of the bridge, far too low for ships to pass underneath. So, in the centre section the girders were constructed alongside and above the railway track, allowing trains to pass through a tunnel-like gap between the metalwork. Hence that section got the name of the High Girders.

Wind pressure  Modern standards for wind resistance did not exist in Bouch’s time, but engineers were well aware of the issue. He took advice about wind pressure. French and American engineers had already adopted 40-50 pounds per square foot for wind loading (and if a Tay Bridge was being built today that would be the design requirement). But the lowest recommendation Bouch was given was 10 pounds per square foot. He took that, believing that wind intensity at that level would not force the bolts upwards that secured the columns to their piers.

Throughout the project there was pressure on Bouch from his employers to work as fast as possible, and to keep costs down. The bridge took six years to build. The materials used included:

  • 10,000,000 bricks
  • 2,000,000 rivets
  • 87,000 cubic feet of timber
  • 15,000 casks of cement

Six hundred men were employed during the construction; 20 of them died in accidents. The bridge cost was £300,000 which was not a high amount at the time. It equates to approximately £20,000,000 today, though modern bridges cost many times that sum.

The bridge was more than two miles long. Some records say it was the longest bridge in the world; others that it was the longest iron bridge, or the longest rail bridge. It impressed many. General Ulysses Grant, who led the Union Armies to victory in the American Civil War, visited the construction in 1877 while he was President of the United States.

The Tay Bridge was opened officially on 31st May, 1878, with great celebrations. Directors were taken over the bridge in a special train. Passenger traffic commenced the next day. Profits for the rail company soared.

First Tay Bridge, viewed from the north. Note the High Girders section in the upper centre-left of the photo.

In June 1879 Queen Victoria crossed the bridge as she journeyed south from Balmoral Castle. A few days later Thomas Bouch was knighted by the Queen at Windsor Castle.

Collapse

It’s now Sunday evening of the 28th December, 1879. Winter nights in Scotland are cold. This night there are also howling winds. On a naval training ship moored at Dundee, the wind speed is measured as gusting to Force 10/11.

On the south side of the River Tay a train approaches the bridge. There’s the locomotive, its tender, five passenger carriages and a luggage van. The last passengers have boarded at St Fort Station and are likely locked in, thought of as a safety measure. At Wormit, on the southern edge of the river, the train slows to 3 or 4 mph as a safety baton is passed over. At 7.13 pm the train moves on to the Tay Bridge.

It’s only 19 months since the bridge was opened. Thousands of passengers have crossed, including Queen Victoria. But not on a night like this. Gale force winds sweep down the Tay river valley. Some say no train should be using the bridge over the estuary on such a night. But this train does.

From the south signal box, through wind and rain an observer watches the tail lamps of the train as it moves on to the bridge. When it reaches 200 yards he sees sparks at the wheels. Probably the wind is pushing the wheel flanges against the edge of the rail. Those sparks fly for almost three minutes. Now the train is in the High Girders central section. The observer later described what happened next: ‘there was a sudden bright flash of light, and in an instant there was total darkness, the tail lamps of the train, the sparks and the flash of light all … disappearing at the same instant’.

He tells the signalman, who until now has been busy with other duties. Neither of them can see anything through the darkness. To be sure all is well, the signalman uses a cable phone (which was attached to the bridge) to call the signal box at the north end. He can’t get through. They don’t know what to think.

Newspaper illustration of railway officer crawling out during storm, finding central section of bridge gone.

Officials on the Dundee side expect the train to arrive. When it doesn’t, they wonder if it ever left the south bank. Still they wait, but see and hear nothing. Finally two men volunteer to go out on the bridge. Perhaps the train is stuck. Or something worse. What they’re doing is immensely risky. Many times they are almost blown off the bridge. One stops, but the other reaches the point where the high girder section starts. It’s gone. And the train is gone. Holding on to save his life, he peers out over the raging river, realising the bridge ahead, the train, the crew and the passengers have all plunged into the water.

At first light ships search the Tay. They find no survivors. To this day different numbers are given for how many died, but most agree it was around 75.

As news spreads there is nation-wide shock. Newspapers publish sensational drawings of the train plunging off the tracks into the Tay. The engineering world is stunned.

When the storm is over, divers go down to the wreck. They find the locomotive and its carriages still inside the girders. It had all come down together. Only 46 bodies are recovered.

One of the most remarkable feats of engineering now lies at the bottom of the river it spanned.

Bridge viewed from the south after the accident. The High Girders section has collapsed into the river along with the train.

Consequences

After a tragedy the two immediate questions are ‘How did it happen?’ and ‘Who should we blame?’ Answers came soon.

An official Court of Inquiry was set up immediately with three commissioners. The disaster occurred on 28th December, 1879, and evidence was taken as early as 3rd January, 1880, just six days later.

They gathered eye witness testimony from people who had seen something from shore, and appointed senior engineers to investigate the wrecked sections and the remainder of the bridge. Others considered the design and construction methods. Months were spent gathering and examining expert reports and interviewing key people.

None was more key than Sir Thomas Bouch, who argued that derailment and collision with the girders explained the tragedy. His view was considered to have little supporting evidence.

The Court of Inquiry’s report was published a few months later and presented to both the Commons and the Lords in the Houses of Parliament. All points were not agreed in the report. But there was reasonable unanimity in serious criticisms of the design, the poor ironwork produced by the Wormit foundry causing some parts to fail when under heavy load, mistakes made during construction, inadequate maintenance and remedial measures. And a failure to create a structure able to withstand the strength of winds which could occur in the Tay estuary.

Here are two damning comments in the official report: *

‘…can there be any doubt that, what caused the overthrow of the bridge, was the pressure of the wind, acting upon a structure badly built, and badly maintained.’ (p.41)

‘The conclusion then, to which we have come, is that this bridge was badly designed, badly constructed, and badly maintained, and that its downfall was due to inherent defects in the structure, which must sooner or later have brought it down. For these defects both in the design, the construction, and the maintenance, Sir Thomas Bouch is, in our opinion, mainly to blame. For the faults of design he is entirely responsible.’ (p.44)

Bouch was broken by the Inquiry’s findings. He became a recluse and died of ‘stress’ in October 1880, four months after the report was published. He was 58.

Down all the years, arguments persist about what caused the bridge to fall. Bouch continues to be blamed, though perhaps a little less severely than by the official inquiry. But if the ‘buck stops at the top’, he was, unquestionably, at the top with this project.

Here’s what I think happened. Almost all the factors mentioned earlier had their part to play. Parts failed that with proper workmanship and maintenance should have stayed strong. But, fatally, when the locomotive and all its carriages entered the high girders, they created what one website calls ‘a solid broadside resistance to the gale, which was blowing full on to them’.  A yacht is moved forcefully when the flat of the sail is presented to the wind. On that night, at the highest point of the bridge, that train plus the high girders were a heavy flat surface facing directly towards a powerful wind. It was too much. The whole central section was pushed sideways, tilting the girders over, snapping the cast-iron columns, and driving the high girders and the train into the Tay.**

Conclusions

From the story of the Tay Bridge disaster, I have three short conclusions for our lives today.

Too much dependence on one person is risky

I wouldn’t like to have been Thomas Bouch, even at the start of the bridge project. He was a brilliant civil engineer, but there are 20 or perhaps 50 different specialised areas involved in a major construction and he didn’t and couldn’t have knowledge and skills for all these areas.

When I led churches, the mission agency, the seminary, I was uncomfortable when too much about our work depended on one person. Sometimes I asked: ‘If you were run over by a bus, who could do your job?’ If no-one could, we were vulnerable.

Some people like feeling indispensable. But for an organisation, that’s not strength; it’s weakness.

A great vision isn’t enough. Implementation really matters

No-one had built a two-mile long iron bridge before. Bouch’s vision was great. But he was pressurised on time scale and on cost. Corners were cut, too much didn’t get designed well, built well, inspected well, maintained well. Bouch’s big ideas were really good, but many things during and just after construction were lacking. Hindsight is always 20/20, but it seems it was only a matter of time before the bridge failed.

Some of us look back to when we were given a great opportunity. A new job. A wonderful spouse. Good health. University entrance. A rare skill. And we didn’t make the most of it. We didn’t study, or develop our abilities, or got distracted on to far less important things. It’s one thing to get a great opportunity. It’s another to fulfil our potential with that opportunity. Implementation really matters.

What we do is always tested

The 28th of December, 1879 – the night of the terrible storm – was the ultimate test for the Tay Bridge. And it fell. When tested, it failed.

The sobering truth is that every life faces tests.

  • Politicians know re-election time is coming when what they’ve done will be scrutinised and voted on
  • Students will face assignments and exams, and what they know will be assessed
  • Workers will have appraisals. Their performance will be evaluated.
  • Relationships will go through hard times, a test of how strongly they hold together

Knowing that there will be times of testing should motivate us to prepare and live ready to face them.

My Aunt Milla drove really badly. Her top speed on all roads was 25 mph. She couldn’t parallel park on a deserted street. She was poor at judging traffic at junctions, and solved that by just going straight through. It was terrifying to be her passenger. Question: how did she ever pass a test when she drove like that? Answer: she didn’t pass a test. She’d begun to drive before there were any tests, so she simply applied for a licence and was given one. But because she’d never prepared for a test, she was forever a dreadful and dangerous driver.

We’re living well when we’re prepared for whatever test will come. Some tests are the ordinary challenges of this life. From my Christian perspective, there’s also the ultimate test of standing before God, and accounting for what we’ve done with all that’s been entrusted to us.

May we be ready for that, the greatest of tests, and all the others along the way.

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A special thanks and acknowledgment. The images in this blog are used with the permission of ‘Libraries, Leisure and Culture Dundee’. Their website is full of information, and their staff wonderfully helpful.

*  The official report can be found at: https://www.railwaysarchive.co.uk/documents/BoT_TayInquiry1880.pdf

** I’m grateful for this explanation from the Wonders of World Engineering website: https://wondersofworldengineering.com/tay-bridges.html

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Three extra details:

The locomotive that plunged into the Tay was recovered, restored and put back in service. Its new nickname was ‘The Diver’.

Parts of the old bridge are still in use today – suitable girders were incorporated into the structure of the replacement Tay Rail Bridge.

The new bridge is twin track, opened in 1887 without any official ceremony.