Showing posts with label WW1. Show all posts
Showing posts with label WW1. Show all posts

04 April 2026

Diesel Fuel

A 40% premium on diesel fuel?! What happened?

A Volkswagen Rabbit which sounded like a farm tractor was never something I found attractive. However, during the oil price gyrations of the 1970s and 1980s, a number of people did choose diesel passenger vehicles because the fuel was 10-20% cheaper and diesel engines were significantly more fuel efficient than those powered by gasoline. 

Elsewhere, the 1970s and 1980s were characterized by the same old domestic North American products, showing little re-engineering or innovation. Tariff barriers often helped ensure they were made in this country or on this continent. They were relatively expensive. Electronics?: a cathode ray tube TV (maybe colour), a stereo for your 'records', a VCR. An audio cassette player in the car!

Welcome to the 2020s! 

Diesel is more of a globally-traded and -priced commodity today. With this blog's favourite Strait facing selective traffic attenuation, Persian Gulf crude oil is not getting to European refineries ... but our refined diesel fuel is. I saw a Sky News (UK) story today with a graph showing that Canada has the largest diesel fuel reserves in the world. I guess 'had' would be more accurate. 

Since 2000, there has been explosive innovation in new products. Twenty years ago, we could not have imagined all the changes which have taken place - both the new products and the changes they have caused in our societies. 

And now, the whole economy of the "globalized world" runs on diesel - from the trucks moving the shipping containers to the docks of China, Vietnam, Japan, South Korea and Taiwan ... up to and including the wide assortment of courier trucks racing up and down our street every single weekday ... and now on weekends.

And the Europeans have perfected clean diesel automobiles! These are not your father's Volkswagens!

With the US military on the move in recent months, 'middle distillates' diesel and jet fuel are in greater demand than usual. 

Farmers are planting - creating the usual seasonal demand on diesel ... and they are not happy about the price changes.

And if your experience and knowledge-based hunch is that the higher diesel fuel demand will continue or increase ... petroleum financial derivatives, or a loaded petroleum tanker slow-steaming or loitering between here and Europe or Asia ... is even more of a sure thing than a White House insider pre-Tweet bet on a prediction market. 

*  *  *

Diesel - How It Began

https://archive.org/details/11650204bsb/page/n4/mode/1up

Rudolf Diesel (1858-1913)

If you were to copy and paste the link above, you could read Rudolf Diesel's original treatise. 
Warning: lots of German ... even more math!

*  *  *

screencap from: Rudolf Diesel, Pioneer of the Age of Power; Nitske & Wilson; 1965; U of Oklahoma Press. archive.org 

*  *  *

screencap from: Diesel, Technology and Society in Industrial Germany; Donald E Thomas Jr; 1987; U of Alabama Press. archive.org

Diesel's patent from the Kaiser. 
M-A-N is the abbreviation of Maschinenfabrik Augsburg Nürnberg. 
It will appear again below.

*  *  *

from: Iron Horse to Diesel; Paul Snow; 1961; Whitman.

From a childhood storybook, came this image. I love the artist's flying cogwheels. I believe there were two motor explosions in different settings. One was fuelling with ammonia, the other was using a powdered coal/water slurry. 

During my research, I was reminded that General Electric was experimenting with a powdered coal fuel for a diesel-electric prototype in 1990 ... but there was a note that railroads would have to indicate an interest in the technology for the development to continue. 

*  *  *

screencap from: Rudolf Diesel, Pioneer of the Age of Power; Nitske & Wilson; 1965; U of Oklahoma Press. archive.org

*  *  *

The new fields of aviation and diesel power must have set records for the 'short elapsed time' between the invention of a technology, and its application in war-fighting. 

Elsewhere on this blog, you'll find that a recent Rudolf Diesel biographer speculated that his apparent English Channel ferry suicide was a cover orchestrated by the British to spirit him off to Montreal. This was on the evening of 29 September 1913, on the SS Dresden, steaming between Antwerp and Harwich, England. 

Overnight, on 1 January 1915, the Vickers shipyard at Montreal was turned into a high-security facility with a complete change of personnel. The British Admiralty oversaw the building of 10 H-Class submarines by a workforce of 2000 Americans. The biographer's theory is that the multi-lingual, well-travelled Diesel was 'an expert' brought in to apply Diesel's latest technologies there.

Meanwhile ...

from: Die Höllenmaschine Im U-Boot; Kapitän Herbert Sauer; 1928; August Scherl. archive.org

Top: In the oil engine room of a U-boat in front of the main switch and the engine telegraph.

Bottom: In the diving control center, forward port side. High-pressure compressed air distribution system. In the center of it, the base of the central periscope with eyepiece. Central control station with repeater gyrocompass. Top left, engine telegraph. On the right, under the clock, the quick-venting handwheels of the forward ballast tanks.

*  *  *

from: Geology of Petroleum; William Harvey Emmons; 1921; McGraw-Hill.

At one point, Ontario was Canada's premier petroleum producing province.
The tar/bitumen/oil ... sands are the source of the heavy oil which facilitates the production of large quantities of diesel fuel.

*  *  *

The 1930s, United States ...

There was enough interest in diesel engines in the late 1920s and all through the 1930s, that a magazine existed to write about all the different applications in which the technology could be used. The advertisements are particularly good at depicting this potential. 

Notice the United Fruit Company motive power, pulling what looks like sugar cane. There is a good chance this operation was in Cuba. Unlike the many steam locomotives already present on Cuban railways, these light diesels were able to operate with less maintenance. They didn't have the thirst for water of the steam engines. They were also less likely to emit sparks which could set fire to the dried cane as it stood in the fields.

from: Diesel Progress magazine; June 1935; Diesel Engines Inc. archive.org

*  *  *

The gimmicky, art-deco, streamlined trainsets rode like maintenance-of-way speeder trailers but they spurred on many technological changes.

from: Diesel Progress magazine; June 1935; Diesel Engines Inc. archive.org

*  *  *

Coming to German Cinemas in 1942 ...

from: https://archive.org/details/diesel0000illu/mode/1up

The text-heavy side of this November 1942 German leaflet concludes: 
"A man and a fighter triumphed. And with him, his idea, his work, which changed the face of the global economy."

... Probably the 'Reichsminister für Volksaufklärung und Propaganda' did not subscribe to the theory 
that Rudolf Diesel disappeared in order to build Royal Navy submarines in Montreal. 

I've watched parts of this movie - it's on YouTube.
The directing is a little heavy-handed ...

*  *  *

1950 - General Motors Booklet

from: Diesel the Modern Power; Ralph A Richardson; 1950; General Motors. 


from: Diesel the Modern Power; Ralph A Richardson; 1950; General Motors.


from: Diesel the Modern Power; Ralph A Richardson; 1950; General Motors.

To make interpretation a little easier ... the three little rocker arms above the cylinder show you when the valves and the injector are doing something. 

The two-cycle innovation is 'scavenging'. Instead of using a piston cycle just to push the exhaust gases out ... an attached blower clears them and replaces them with fresh air at the same time. Consequently, every 'downward' piston movement is a power stroke. 

These opposed-piston engines were even more efficient ...
but, as adapted space-saving marine/submarine engines, 
they were more complicated, too different, and too troublesome in the long run.

*  *  *

From a 1957 Textbook on Petroleum ...

from: Petroleum, Prehistoric to Petrochemicals; GA Purdy; 1957; Copp Clark. 

*  *  *

A Transport Canada Railway Locomotive Document from 2001
(a quarter of a century ago)

This material will not be on the proverbial test. 
Perhaps some readers may be interested in how some of these older units compare.
This publication says this data comes from AAR testing.

IG is Imperial Gallon
MM is millions
NOx and SOx are oxides of nitrogen and sulphur.
HC - hydrocarbons, unburned 'oil'
PM is probably PM 2.5, the nasty little bits of soot that can pass from the lungs into the bloodstream.

from: Diesel Fuel Quality and Locomotive Emissions in Canada; Robert Dunn; 2001; Transport Canada. archive.org


I believe that Brake Specific Fuel Consumption (bsfc) is a way of expressing fuel efficiency. It is more complicated that the 'best' fuel efficiency ... because it factors in cycles of performance under different conditions. The lower bsfc numbers indicate a more efficient engine.

A 'brake dynamometer' attaches to a crankshaft and applies different measured braking (i.e. resistance) forces on it to simulate the various loads under which the engine works.

While the newer units don't seem to offer significantly better efficiency on a 1:1 basis ... the text reminds us that they provide more power per unit and that they burn the fuel with less pollution.


from: Diesel Fuel Quality and Locomotive Emissions in Canada; Robert Dunn; 2001; Transport Canada.

*  *  *

Diesel Engines in Ships

When we get to the use of 'diesel' in large modern ocean ships such as tankers and containerships, there is not one single type of fuel which is burned. Ships carry multiple fuel tanks to allow for cost-effective operation or for low-pollution operation.

Since 2020, the International Maritime Organization (IMO) has required that all ships (unless using scrubbers) must carry fuel oil with no more than 0.50% sulphur content (mass/mass). In specific Emission Control Areas (ECA) fuel with no greater than 0.10% sulphur content can be used. Effective March 2027, the Canadian Arctic and Norwegian Sea become ECAs with the 0.10% sulphur regulation becoming effective.

The text below revisits my 1957 petroleum textbook. The unrefined petroleum is still the same today. The processes for refining it are more complex, so I sometimes like to start with the basic explanation of what they did 75 years ago in simpler times. 

The last paragraph is still applicable. The ship owner is not going to allow the ship's engineers to put just any kind of fuel in a marine diesel engine that costs millions of dollars. 


from: Petroleum, Prehistoric to Petrochemicals; GA Purdy; 1957; Copp Clark.

In reading about future 'alternative fuels' to be used instead of diesel fuel for shipping ... e.g. biodiesel, hydrogen, ammonia*, methanol*, LNG*, etc ... I get the impression they all have some characteristic which makes them impractical outside of those ECAs which require low sulphur fuel. (*Currently used in Emission Control Areas.)

For example: fuels may be scarce and expensive; or, they may consist of the smallest molecule which is always escaping and its supercooled liquid form damages the metal it interacts with; or, potentially extremely toxic to the crew if not handled with great care; or, not containing enough energy per unit and/or requiring more specialized handling than diesel oil. 
Exception: On ships designed to carry LNG ... the ship can be designed to use the 'boiled off' vapour exclusively as fuel.

As with the previously-presented locomotive fleet (and our current automobile fleet) ... owners are unlikely to scrap a piece of equipment which has only been in service for 5 years. Tankers and containerships generally have a service life of 20-30 years. The main engine usually works for the whole lifespan of the hull. 

... So if a miracle like cheap solar-powered electric containerships suddenly descended down upon the earth, the ship owners would probably continue to use their old ships, burning their old fuels, until the end of their normal service lives.

*  *  *

Another interesting thing about modern ocean ships such as tankers and containerships ... 

We have all seen that they are 'welded together' in China or South Korea using cheap labour and/or very intensive automation. You should see some of the plate steel cutting/handling/welding automation videos! ...

However, these mass-produced ships are a 'global trade product'. Sure, the steel is made, the 'unfair subsidies' given, and the brute force assembly is done in Asia. However, the complete engines generally come from Europe. The electronic control systems may come from somewhere else, etc. 

*  *  *

A Ship Built in 2025

from: CGTN news website.

Recently completed in China, this Greek-owned tanker will carry 850-900,000 barrels of oil - depending on the oil's density. 

If you can imagine about 115 of these ships fully-loaded ... it would represent the world's petroleum use on a single day.

The Seascout is powered by a MAN B&W 6G60ME-C Mk9.5 engine - a low-speed, six-cylinder, two-stroke marine diesel. It puts out approximately 22,850 horsepower or 17,040 kW. Its engine drives the propeller directly with no transmission between the engine and the prop. It generally operates at 60-85 RPM (range 20-95 RPM), travelling at about 14 knots. 

You may have noticed the 'MAN' (Maschinenfabrik Augsburg Nürnberg) which takes us right back to one of Rudolf Diesel's first engine builders. Just like General Electric, the name endures but the corporate structures have changed over the decades. I believe MAN is now owned by Volkswagen's parent. 

* * *

People may remember that during the first oil crisis, top highway speeds were reduced, to decrease the fuel burned by highway vehicles ... because of the exponential resistance of air as a car's speed increases ...

The Danish shipping line Maersk first came up with the idea of 'slow steaming'. As with the highway speed reduction, the idea was to decrease the exponential resistance of the water at higher speeds to save on fuel costs. They ran a trial involving 110 ships in 2007. Adjustments were required to the ship engines to avoid damaging them by running them at speeds for which they weren't designed. By dropping the speed from 24 knots to 14-18 knots they found they could reduce fuel consumption by 30% or more. 

Obviously, containerships in high demand and operating on a schedule will operate at higher speeds when necessary.

However, for bulk commodities, ship fuel economy is often more important for profitability than speed. This is particularly the case when petroleum is going to remain 'at sea' for a period of time. There, it waits for the shipowner or product consignor to determine that a given market will provide an advantageous price ... and the ship is then instructed to dock and make delivery.

* * *

He was born in a foreign country. He lived and worked in poverty during his first decade of life. He was subsequently deported to another foreign country at the onset of the Franco-Prussian War.

Rudolf Diesel hoped that poorer countries could fuel his simpler engines with whichever plant oils they had in abundance. He hoped people could derive the economic benefits of efficient, modern motor power. 

Diesel never could have imagined how his invention would dominate the world's transportation system over a century later.

'His work changed the face of the global economy.'


end


07 June 2025

GTR 1918 Schedule ('labour contract') for Engineers & Firemen

 


This interesting document describes the working conditions for wartime engine crews over a century ago. Unlike typical collective agreements, it is not issued over the signatures of representatives for both management and labour. 

A note on the title page mentions the United States Railroad Administration. This is a bit of a mystery to me. The USRA was set up in 1917 to efficiently coordinate the war effort of the very numerous and geographically diverse American railroads. 

... However, the wartime (in Canada: 1914-1918) Canadian labour agreements between the Grand Trunk and the BLE and BLF would have been negotiated through their pre-existing arrangements. It is possible that the GTR agreed to employ the American 'schedule' for the sake of ensuring labour peace. It was a tumultuous period in Canadian railway history. 

A bit of historical background follows ... 

The Brotherhood of Locomotive Engineers was founded in Detroit in 1863 and the Brotherhood of Locomotive Firemen began in 1873 in Port Jervis, New York. These fraternal organizations initially offered mutual life and disability insurance for members ... during a period when government social programs for workers did not exist.

With the BLE present in Canada in 1865, the next logical step was for it to begin negotiating better working conditions for its members. 

In 1875, an economic depression was occurring and Grand Trunk Railway management implemented comprehensive cost cutting measures. It laid off over 600 employees and put in place significant cuts in pay. The BLE called a strike on 29 December 1876 which lasted for 4 days. The government of Prime Minister Alexander Mackenzie declined to intervene. 

At this point, the BLE had the full attention of the Grand Trunk. Among other conditions required to call off the strike, the BLE proposed a two-tiered wage schedule for engineers ... with less-senior employees receiving lower pay. Presumably, this resulted in some preservation of pay levels for the more senior employees. 

Why might the union have suggested a two-tiered pay structure? There was probably no arrangement for railway pensions in this era, so senior workers probably worked until they became disabled for continued employment, or died ... or they depended on their extended families, or their own life savings after their careers ended. 

Unlike two-tiered pay scales advocated by corporations today ... which are intended to permanently eliminate the higher rate through senior worker attrition ... the union may have expected the lower paid workers would later regain the higher wage level after the economic slump had ended.

With the conclusion of the strike in 1877, the BLE had achieved the first union contract in Canada for railway workers. The BLF followed the BLE into Canada after this successful negotiation.

*  *  *

Forty years later ... With the Grand Trunk's absentee (UK-based) board of directors and its ill-fated Grant Trunk Pacific Railway expansion ... the stage was being set for it to default on its Government of Canada loans in 1919. 

In Canada, this was happening during a period of significant labour discontent ... as the financial and social disruption of the Great War overshadowed the preservation or advancement of worker compensation and protections in Canada.

Of coincidental historical interest ... is the fact that the publication date is exactly one week before the beginning of Canada's famous Last Hundred Days offensive of the Great War.

*  *  *





At $00.0549 cents per mile in 1918 ...

an engineer would be paid $1.0431 per mile in 2025 dollars.
... or $104.31 (mileage calculation only) for a standard 8 hour/100 mile day in 2025 dollars.



At the top rate of $187 per month in 1918, an engineer would earn ...

$3553 per month, or $42,636 per year in 2025 dollars.

I'm guessing that passenger and mixed service on these secondary lines
often involved slow running and a lot of stops and switching en route.

... Paying a monthly rate eliminated the many compensation calculations provided for in this booklet.

While minute-by-minute crew supervision would be easy for mainline trains ...
the monthly rate probably eliminated a lot of management time and energy watching employees 
and/or later dealing with pay disputes 
(eg. how many switching moves had been made at a remote location on a given date).


Unused, undated postcard.








from: Railroad History, Autumn 1982; ed: Robert C Post; Railway & Historical Society.

GTR engine 113 at Lewiston, Maine in 1912 ... on the line to Portland, Maine.
Built by Baldwin in 1912.
Later CNR 5043 (1923), scrapped 1961. 
With a safety valve lifted, the fireman refills the tender.









from: Railroad History, Autumn 1982; ed: Robert C Post; Railway & Historical Society.

GTR engine 715 - date and location unknown.
Built by Alco in 1907.
Later CNR 2573 (1923), scrapped 1958. 
The fireman refills the tender as the engineer inspects the running gear.

Both Engine 113 and Engine 715 seem to have non-electric headlights.
(extra work for the engineer ... Clause 17, below)




To make this table less intimidating, just remember that the 'standard day' is 8 hours = 100 miles.
Everything else flows from that basic equivalence. 



from: Bulletin No 25, May 1931; ed: Charles E Fisher; Railway & Historical Society.

... later CNR 49.
Donated to the CRHA in 1960.


28 March 2020

CPR 1915 Annual Report + a Shareholders' Meeting with COVID-19


Included are: The entire 1915 annual report, detail on CPR assets taken by the Admiralty 1914-1918, & how to meet in 2020!

This annual report measures 5.5 x 8 inches - compared to today's 8.5 x 11 inches. It comes from a bound volume of CPR annual reports 1914-1920 once held by the City Bank Farmers Trust Company, 22 William Street, New York. The volume was noted as being 'in machine' (perhaps microfilm?) in 1951. 

While I like to point out interesting aspects of a given artifact, there is so much in this old document that some readers will enjoy hours (of COVID-induced staying at home time) researching questions raised by it. 







from: The Spiral Tunnels and the Big Hill; Graeme Pole; 1995; Altitude Publishing.
Working with a dreadnought drill in the Rogers Pass (later: Connaught) tunnel.

from: Canadian Pacific Afloat 1883-1968; George Musk; 1968; Canadian Pacific.
Above: Empress of India - 1891-1914


Sir WC Van Horne died September 11, 1915 in Montreal and was buried at Joliet, Illinois.



As always, the uniform sizes of my 'taller' images
get scroogled up by the blogging software.

This document features a couple of very long fold-out lists.
I have tried to 'break' these at logical locations.

All images are named so you can save them if you desire.








The following two-page tangent lists wartime activities involving CPR shipping assets.

from: Canadian Pacific Afloat 1883-1968; George Musk; 1968; Canadian Pacific.

from: Canadian Pacific Afloat 1883-1968; George Musk; 1968; Canadian Pacific.

Back to the 1915 CPR Annual Report ...



*  *  *

From the just-arrived 2019 CPR Annual Report ...


For students of history, the new-found enthusiasm for a short-line through Maine to Saint John and tidewater may be of interest. I have combined two outer marginal segments from facing pages into this image. 




When you decide to have an Annual General Meeting but no one shows up ...


In this particular case, COVID-19 has precipitated a change to an on-line AGM and one wonders if some companies may never go back to in-person meetings to which all shareholders are invited. Most companies ensure that individuals have a legal right (shareholder) or a legitimate reason (e.g. a journalist, financial analyst) for attending the private AGM. 

... But what one can physically do with a table of people doing proxy-form screening and security personnel ... one can do even more effectively with an app!


'Non-registered shareholder'

Most small investors have their securities (segregated in their name by their on-line broker) stored in a central electronic registry in 'street name'. When a trade closes, the 'owner' of the shares changes from the beneficial owner's broker to the new owner's broker. 

In 'street name', until you need your shares, all kinds of fun and creative things can be done with them by the broker who 'owns' them (they can be borrowed from you for shorting, high-frequency/algorithmic trading etc) ... as long as you receive any dividends, get to vote, retain your right to dispose of the shares, etc.


'Registered shareholder'

This is can be imagined as the old paper-based system of share certificates. On your instructions, your broker would sell your shares at the stockmarket and by the standardized closing date, you would have to sign-over your share certificates at your broker's office.

The company's transfer agent (e.g. a trust company) would cancel your share certificates and take your (personal) name off the company's (e.g. CPR) share registry.

The new owner would have their name typed on the company's crisp, new, blank share certificates by the transfer agent, and they would pick them up from their broker for safekeeping at home or in a safety deposit box. With this system, it was necessary to type the number of shares purchased on the new certificate.

... oh, and the money ...

Just as you had to surrender your certificates on the standardized closing date, the buyer would have to provide cash to their broker to complete their purchase from you.

As recently as the late 1990s full-service brokerages charged small investors $100-200 commission for each transaction. A commission is sometimes also known as a 'rip'.

Today, major Registered Shareholders would often be people or corporations taking large stakes in a publicly-traded company. At a certain threshold (e.g. buying a defined percentage of the public shares in the market) their activity would be publicly reportable.
... For example, as Berkshire Hathaway was taking over BNSF to make it a private company, the event would be news which was 'material' to small investors. Small investors might choose to immediately sell in case the deal fell through and the stock dropped ... or to hold on to their shares in the hope that Warren Buffett raised his bid.
Smaller Registered Shareholders might include company officers or employees who are granted shares directly by the company as part of their compensation or 'profit sharing' plans.