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Generation of another kind

In Newcastle electricity was the new excitement.  To claim that Newcastle was the only birthplace of electricity, as an everyday source of household energy, would be an exaggeration, given the efforts of Westinghouse and Edison in the United States.  But it was Swan's electric light bulb in Newcastle that began the revolution and now demanded new methods of generation and distribution. 

The young McKie boys, James William Lawson McKie and Thomas McKie, were in the right place at the right time. 

At the turn of the century my grandfather and his brother Tom both began training as electrical engineers.  Evidently someone in their family had seen its potential (I know, another pun) and paid for their education.  It may have been their aunt, Margaret J McKie.

While still in his early twenties Tom had met Bridget Nicholson who was five years older than he.  They were married in 1909, moving to 16 Wansbeck Terrace, Ashington. 


Tom and Bridget McKie 2
Tom and Bridget McKie 1920's


One of the strengths of Tyneside area was technical education.  In this various prominent members of the Newcastle Literary and Philosophical Society played an important part by endowing educational institutions and persuading the University of Durham to begin teaching science and engineering.  Notable among the key players were Armstrong and Whitworth. 

Several of the prominent electrical pioneers in the region attended the Durham College of Science and later, Armstrong College in Newcastle, where my father went.  It was part of the genesis of the University of Newcastle, that has such illustrious alumni as Peter Higgs, after whom the 'God Particle', the Higgs Boson, is named.

One such graduate of Durham College of Science was John Henry Holmes who in 1883 established J.H. Holmes Electrical Engineering Company. 

My grandfather James William Lawson McKie joined J.H. Holmes Electrical Engineering, rising to chief engineer.

John Holmes' business was based on his patented solution to a problem that plagued DC systems more than AC, like those beginning to be used on ships.  To quote from Wikipedia:

The "quick-break" switch overcame the problem of a switch's contacts developing electric arcing whenever the circuit was opened or closed. Arcing would cause pitting on one contact and the build-up of residue on the other, and the switch's useful life would be diminished. Holmes' invention ensured that the contacts would separate or come together very quickly, however much or little pressure was exerted by the user on the switch actuator. The action of this "quick break" mechanism meant that there was insufficient time for an arc to form, and the switch would thus have a long working life. This "quick break" technology is still in use in almost every ordinary light switch in the world today, numbering in the billions, as well as in many other forms of electric switch.

A century later the 'quick make-and-break' concept would be a design claim in one of my father's patents. This one for a 'Quick acting make-and-break microswitch'  US 3309476 A.  Who says memes (persistent ideas) aren't handed on, down the generations?

The adoption of the new electric light bulbs was very fast. To the homeowner and in factories electric light was revolutionary, allowing work to continue through the night.  In England then in the US large private homes and theatres quickly installed electricity alternators (AC) or Holmes Dynamos (DC), followed by entire localities.

In Australia the NSW town of Tamworth was the first in Australia to install electric bulbs in street lights and illuminated 13km of road in 1888. In the same State, Young, Penrith, Moss Vale and Broken Hill all quickly followed.  Sydney was quite late, mainly because it had recently installed advanced gas lighting with mantels, one or two of which were retained for historical purposes until quite recently. 

Trams were originally horse drawn.  The first electric trams were installed by the Tynemouth and District Electric Traction Company in 1901.  The power was generated at Tanners Bank, North Shields.  Like those in Hong Kong the trams were double-decker, on 3 foot 6 gauge track and ran on 550V DC.   Hong Kong's still runs but like many such systems Newcastle's was pulled up before WW2 and replaced with busses.

By 1907  J.H. Holmes had installed electric power and lighting into 275 collieries, shipyards and railways, dockyards and quarries; 293 newspaper offices and paper mills; 811 steam ships and yachts; and 148 textile mills. The business, now including my grandfather, also designed portable lighting for ships sailing through the Suez Canal at night.

Holmes systems were DC, based on his Dynamo designs.  This is a little one:

110v dynamo by J. H. Holmes and Co
 A 110v dynamo by J. H. Holmes and Co - circa 1900
coupled to a high-speed inverted vertical compound engine,
as may be found generating auxiliary power on a ship
by Browett, Lindley and Co - Exhibit at Bolton Steam Museum


After a fact-finding visit there in 1925, the Institution of Mechanical Engineers commented on the Firm's history: '...the Firm may therefore justly claim to be one of the earliest electrical engineering businesses in the country.'  I might add - ' and therefore in the world.'


James Lawson McKie
James William Lawson McKie 1920's


Meanwhile in 1877, Charles Algernon Parsons, a young man who had recently graduated from St. John's College, Cambridge, with a first-class honours degree, joined W.G. Armstrong at Elswick, as an apprentice.  Parsons believed in practical learning from the shop floor up, a tradition that both my father and my uncle would carry on a generation later when they would both work for the company Parsons founded.  More than that, they would both meet their future wives there. 

While working for W.G. Armstrong and later, Clarke, Chapman and Co, also on the Tyne, young Charles Parsons was attracted to the idea that reciprocating engines are essentially complex and irregular, a batch process, whereas a turbine spins a shaft directly, a continuous process.

Turbines, like water wheels, had been around for centuries but there were severe technical and materials science difficulties when it came to matching a steam or gas engine for power.   At a lecture in 1911 he explained his thoughts back then:

"It seemed to me that moderate surface velocities and speeds of rotation were essential if the turbine motor was to receive general acceptance as a prime mover. I therefore decided to split up the fall in pressure of the steam into small fractional expansions over a large number of turbines in series, so that the velocity of the steam nowhere should be great...I was also anxious to avoid the well-known cutting action on metal of steam at high velocity."

It helped that modern steel was now available and the metals he now had, as metallurgy advanced, could withstand the centrifugal forces and would deliver tens of thousands of hours of reliable service.

He sold his new engine to the Chilean Navy but the British Royal Navy was dubious of this new fangled technology.  So Parsons built a launch, the Turbinia, capable of 34 knots and ran her in figure-eights around the Navy's fastest ship on sea trials.  Turbinia's speed was subsequently demonstrated to Queen Victoria.  After that steam turbines were adopted for newly built British destroyers, and continued in use until the County Class, in the early 1960s, important later in my family's story. 

Wendy and I recently visited Edinburgh where the retired Royal Yacht Britannia is on display, at her heart are the turbines, developing up to 12,000 shaft horsepower, that power her.

Royal Yacht 
Engine Room on Britannia - showing the turbine engines for one of the two shafts
The high pressure turbine is marked, the low pressure turbine is in the foreground (my photo)


This is a drop in the bucket compared to the 160,000 shp Parsons turbines on Cunard's first Queen Mary, for which my father made blades when an apprentice engineer at CA Parsons.   She is now an hotel and attraction at Long Beach California, where I saw her not long after Emily was born.

But of much more lasting importance was the application of steam turbines to electricity generation.  Parsons coupled his turbine to an alternator in what has become known as a turbo-alternator set.  An alternator generates alternating current (AC).  The new machine quickly took over from the older reciprocating engines driving dynamos. It was smaller, simpler, cleaner, neater, and therefore intellectually pleasing to a scientist or engineer.

Parsons proto-type steam turbine and dynamo
Parsons first prototype turbine driven (DC) dynamo - in the Science Museum in London
Don't be confused by the speedboat in the background.
The turbine is the long brass looking section near the centre - with its top housing removed (my photo)


The first public electric lighting in Sydney was in Hyde Park in 1903, employing a small C A Parsons turbine driven dynamo that can still be seen at the powerhouse museum.

This is that machine (with the upper turbine housing raised 7 or 8 cm on spacers), long since replaced with much larger machines, also initially from CA Parsons in Newcastle upon Tyne.


Parsons turbine driven Generator1
Parsons turbine driven Generator1

Powerhouse Museum Sydney
Explanation - from The Powerhouse Museum, Sydney (my photos)



In the image below the turbine is being assembles to drive an alternator (AC) rather that a dynamo (DC).  

A dynamo requires a commutator (the device at the front of the red Holmes Dynamo above) that is very difficult to scale up to larger currents.   Whereas both an alternator and a turbine can more easily be scaled-up and matched so that now they typically convert superheated steam to up to a thousand megawatts of electrical power per unit. 

So today turbo-alternator sets generate over 80% of the world's electricity.


Assembling a turbo-alternator at CA Parsons in 1926

This is one of four in a typical modern turbo-alternator installation - this one from NEC in Japan.
Tens of thousands of such machines now keep the lights on; the trains and factories
and offices running; and the Internet alive, across the world.
Parsons original concept has changed very little.



Parson's 'turbine motor' is also the direct precursor of the 'gas turbine' or 'jet engine' that now powers the great majority of aircraft.

Parsons came from an aristocratic scientific family famed for practical ability and eccentricity.  His mother had learnt blacksmithing to help her husband build the largest astronomical telescope in the world. and his wife Katherine and daughter Rachel and would carry on the tradition after his death.  Katherine and Rachel Parsons both qualified engineers would found the Women's Engineering Society in 1919 a pioneering institution that indirectly paved the way for Leander's mother, Emily L S McKie, to become an engineer in the twenty-first century. Initially it was for smart young things of the upper classes. Eleanor Shelly-Rolls (Rolls Royce heir) and aviatrix Amy Johnson were early members.

Charles Parsons was the nearest thing my father had to a hero to be emulated, although he also admired Albert Einstein.


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I first visited China in November 1986.  I was representing the New South Wales Government on a multinational mission to our Sister State Guangdong.  My photo taken for the trip is still in the State archive [click here].  The theme was regional and small business development.  The group heard presentations from Chinese bureaucrats and visited a number of factories in rural and industrial areas in Southern China.  It was clear then that China was developing at a very fast rate economically. 

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Fiction, Recollections & News

The McKie Family







This is the story of the McKie family down a path through the gardens of the past that led to where I'm standing.  Other paths converged and merged as the McKies met and wed and bred.  Where possible I've glimpsed backwards up those paths as far as records would allow. 

The setting is Newcastle upon Tyne in northeast England and my path winds through a time when the gardens there flowered with exotic blooms and their seeds and nectar changed the entire world.  This was the blossoming of the late industrial and early scientific revolution and it flowered most brilliantly in Newcastle.

I've been to trace a couple of lines of ancestry back six generations to around the turn of the 19th century. Six generations ago, around the turn of the century, lived sixty-four individuals who each contributed a little less 1.6% of their genome to me, half of them on my mother's side and half on my father's.  Yet I can't name half a dozen of them.  But I do know one was called McKie.  So this is about his descendents; and the path they took; and some things a few of them contributed to Newcastle's fortunes; and who they met on the way.

In six generations, unless there is duplication due to copulating cousins, we all have 126 ancestors.  Over half of mine remain obscure to me but I know the majority had one thing in common, they lived in or around Newcastle upon Tyne.  Thus they contributed to the prosperity, fertility and skill of that blossoming town during the century and a half when the garden there was at its most fecund. So it's also a tale of one city.

My mother's family is the subject of a separate article on this website. 


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Opinions and Philosophy

Population and Climate Change – An update





I originally wrote the paper, Issues Arising from the Greenhouse Hypothesis, in 1990 and do not see a need to revise it substantially.  Some of the science is better defined and there have been some minor changes in some of the projections; but otherwise little has changed.

In the Introduction to the 2006 update to that paper I wrote:

Climate change has wide ranging implications...  ranging from its impacts on agriculture (through drought, floods, water availability, land degradation and carbon credits) mining (by limiting markets for coal and minerals processing) manufacturing and transport (through energy costs) to property damage resulting from storms.

The issues are complex, ranging from disputes about the impact of human activities on global warming, to arguments about what should be done and the consequences of the various actions proposed.

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