Mostly about my backyard chickens. (Boring, I know), but there are a lot of us out here. Mine are only kept as pampered pets. I could eat a neighbor's chicken, but not MINE. There may be a comment on current events only if I get riled up enough. And there will always be a cartoon or a joke to cheer us. I promise to try my very best to respond to comments. Now I have to figure out how this blogger thingy works....
A sole survivor in Vampiromorphyda order, vampire squid (Vampyroteuthis infernalis)
is a living fossil that has remained basically unchanged since the age
of dinosaurs, over 3 million years ago. Originally discovered in 1903,
it was named the vampire squid from hell although it actually isn’t
neither a vampire nor a squid.
The most distinctive feature of this
science fiction looking creature are unusually large deep blue or red
eyes. It fact, vampire squid has largest eyes relative to body in the
entire animal kingdom. It has eight long arms with light producing
organs covering the entire body. Vampyroteuthis
has very good control over these organs which gives it unique ability
to camouflage itself in order to avoid predators or disorientate pray by
flashing, making it easier to capture.
Despite its intimidating appearance, vampire squid is a smaller animal, reaching maximum length of 11 in (28 cm)
with a 4 in (10 cm) long mantle. Human encounters are rare as they
inhabit regions between 300 ft (90 m) and 3000 feet (900 m) below the
sea surface.
Vampire squid captures prey, such as
small shrimps, by surrounding them with the webbing between it’s arms.
Once the victim is trapped, it is pushed inside towards the mouth. When
it is threatened or startled, it curls its webbing around the entire
body, forming a defensive web which confuses the predator.
The body composition of the vampire
squid is similar to the one of a jellyfish. When it wants to move, it
uses fin flapping and jet propulsion, reaching impressive speed of two
body lengths per second. This is definitely one adapt survivor, as
oxygen levels are very low in its environment and temperatures are often
near the freezing point. It is neither threatened or dangerous to
humans.
I love you, there's nothing to hide, It's better than burning inside, I love you, no use to pretend, There! I've said it again.
I've said it, what more can I say, Believe me, there's no other way, I love you, I will to the end, There! I've said it again.
I try to drum up, A phrase that will sum up, All that I feel for you. But what good are phrases, The thought that amazes, Is that you love me, And it's heavenly.
Forgive me for wanting you so, But one thing I want you to know, I've loved you since heaven knows when, There! I've said it again
The SP&S 700 is significant in almost every way. Its history is
as important as any other locomotive in the Pacific Northwest,
having provided the power for the premier passenger trains connecting
one of the largest cities on the west coast with the Midwest and East.
The locomotive is noteworthy from an engineering perspective as well,
as it
represents the state of the art of practical design, manufacture, and
operation when steam was king on the nation's rails. It sports then-new
features like Timkin roller bearings and boasts the highest
axle-loading of any Northern-type locomotive ever produced in North
America. Finally, the 700 is remarkable simply for the rare fact that it
still operates more than 75 years after it was built, making it the
largest steam locomotive currently in operation. And then there's the
locomotive's obvious sensory significance: it's big, strong, hot, loud,
smelly, and fast!
This page explores the SP&S 700's place in history, facets of its
engineering and design, the locomotive's restoration and maintenance by
the PRPA, and its thunderous impact on the senses.
From 1912 onward, the Spokane, Portland & Seattle Railway
provided the best freight and passenger route from Portland and the
Columbia River Valley toward the east.
Despite the fact that the railroad formed this important link,
traffic on the new line was slow to develop, partially due to the
intra-family competition between its builders, the Great Northern and
Northern Pacific.
Having no real need of the newest and most powerful locomotives, at
first nearly all of the SP&S's engines were hand-me-downs from its
parents.
However, by the mid-1930s the railroad was woefully underpowered.
Its largest passenger locomotives were Pacifics (4-6-2s), and its
largest freight engines were Mikados (2-8-2s),
with the newest of these having been built in 1920.
The SP&S had a hard time competing against the newer, larger power
owned by the Union Pacific and operated on
the competing ex-OR&N line just across the Columbia River.
Finally, in 1937, NP and GN allowed the SP&S to purchase its first
new locomotives: three Northerns (4-8-4s) classed E-1 and six
Challengers (4-6-6-4s) classed Z-6.
The new SP&S engines were added onto Northern Pacific orders and
were identical in design to NP's class A-3 Northerns and class Z-6
Challengers except that they were built to burn oil instead of coal.
Baldwin Locomotive Works delivered the Northerns to the Spokane,
Portland & Seattle Railway in 1938 as numbers 700, 701, and 702.
The 700 was the first to arrive and was shown off to communities along
the company's mainline before entering regular service.
The new 4-8-4s were specifically purchased to power the SP&S's
premier passenger service.
This train—No. 1 westbound from Spokane and No. 2 on the return from
Portland—included the Portland segments of GN's famous Empire Builder and NP's North Coast Limited.
Both originated in Chicago (running over the CB&Q from Chicago to
St. Paul) and were broken into two
sections in eastern Washington, with one segment bound for Portland
via the SP&S and the other bound to Seattle over the Cascades.
Two of the locomotives, typically 700 and 702, were employed almost
continuously in this service, with the 701 operating freight on the
mainline except when filling in for one of her sisters when they
required servicing.
The engines' good looks and graceful operation soon earned them the
nickname "The Ladies."
As the 700 was the first on the property, she became known
colloquially as "The First Lady of the Northwest" or simply "The Lady."
During its regular service life, The Lady played an important role
in
developing and maintaining the prominence enjoyed by the City of
Portland, and
it is an integral part of the city's history and culture as well as
that of the Columbia River Valley and eastern Washington. Recognizing
this, the
SP&S donated the 700 to the City of Portland in the final days of
steam,
sparing it from the scrapper's torch. The locomotive remains the
property of the
City, but it is officially under the care of the PRPA. Visit our page
on Portland's railroad history or peruse the websites of the Pacific Northwest Chapter of the National Railway Historical Society and the
Spokane, Portland & Seattle Railway Historical Society
to deepen your understanding of the important role that railroads played in the
development of the Northwest.
Two elderly gentlemen had been friends for many decades. Over the years, they had shared all kinds of activities and adventures.
Lately, their activities had been limited to meeting a few times a week to play cards..
One day, they were playing cards when one looked at the other and said, 'Now don't get mad at me ..... I know we've been friends for a long time, but I just can't think of your name! I've thought and thought, but I can't remember it. Please tell me what your name is....
His friend stared at him for at least three minutes -- he just stared and stared at him. Finally, he said, 'How soon do you need to know?'
How pencils are made from graphite, clay and wood at the production site of Faber-Castell AG in Nuremberg, Germany.
Faber-Castell
Organization
Faber-Castell
is one of the world's largest and oldest manufacturers of pens,
pencils, other office supplies and art supplies, as well as high-end
writing instruments and luxury leather goods. Headquartered in Stein,
Germany, it operates 14 factories and 20 sales units throughout the
globe. The Faber-Castell Group employs a staff of approximately 7,000
and does business in more than 100 countries. The House of Faber-Castell
is the family which founded and continues to exercise leadership within
the corporation. They manufacture about 2 billion pencils in 120
different colors every year.
As I get older, I realize: #1 - I talk to myself, because there are times I need expert advice. #2 - I consider "In Style" to be the clothes that still fit. #3 - I don't need anger management. I need people to stop pissing me off. #4 - My people skills are just fine. It's my tolerance for idiots that needs work. #5 - The biggest lie I tell myself is, "I don't need to write that down. I'll remember it." #6 - I have days when my life is just a tent away from a circus. #7 - These days, "on time" is when I get there. #8 - Even duct tape can't fix stupid - but it sure does muffle the sound. #9
- Wouldn't it be wonderful if we could put ourselves in the dryer for
ten minutes, then come out wrinkle-free and three sizes smaller? #10 - Lately, I've noticed people my age are so much older than me. #11 - "Getting lucky" means walking into a room and remembering why I'm there. #12 - When I was a child, I thought nap time was punishment. Now it feels like a mini vacation. #13 - Some days I have no idea what I'm doing out of bed. #14 - I thought growing old would take longer #15 - Aging sure has slowed me down, but it hasn't shut me up.
A traction engine is a self-propelled steam engine used to move heavy loads on roads, plough ground or to provide power at a chosen location. The name derives from the Latin tractus, meaning 'drawn', since the prime function of any traction engine is to draw a load behind it. They are sometimes called road locomotives to distinguish them from railway locomotives – that is, steam engines that run on rails.
Traction engines tend to be large, robust and powerful, but
heavy, slow, and difficult to manoeuvre. Nevertheless, they
revolutionized agriculture and road haulage at a time when the only
alternative prime mover was the draught horse.
They became popular in industrialised countries from around 1850,
when the first self-propelled portable steam engines for agricultural
use were developed. Production continued well into the early part of the
20th century, when competition from internal combustion engine-powered tractors saw them fall out of favour, although some continued in commercial use in the United Kingdom
well into the 1950s and later. All types of traction engines have now
been superseded in commercial use. However, several thousand examples
have been preserved worldwide, many in working order. Steam fairs are
held throughout the year in the United Kingdom, and in other countries,
where visitors can experience working traction engines at close hand.
Traction engines were cumbersome and ill-suited to crossing soft
or heavy ground, so their agricultural use was usually either "on the
belt" – powering farm machinery by means of a continuous leather belt
driven by the flywheel – or in pairs, dragging an implement on a cable
from one side of a field to another. However, where soil conditions
permitted, direct hauling of implements ("off the drawbar") was preferred – in America, this led to the divergent development of the steam tractor.
Limits of technical knowledge and manufacturing technology meant that
practicable road vehicles, powered by steam, did not start to appear
until the early years of the 19th century.
The traction engine, in the form recognisable today, was developed from an experiment in 1859 when Thomas Aveling modified a Clayton & Shuttleworthportable engine,
which had to be hauled from job to job by horses, into a self-propelled
one. The alteration was made by fitting a long driving chain between
the crankshaft and the rear axle. Thomas Aveling is regarded as "the
father of the traction engine".
Other influences were existing vehicles which were the first to be
referred to as traction engines such as the Boydell engines manufactured
by various companies and those developed for road haulage by Bray. The
first half of the 1860s was a period of great experimentation but by the
end of the decade the standard form of the traction engine had evolved
and would change little over the next sixty years.
Until the quality of roads improved there was little demand for
faster vehicles and engines were geared accordingly to cope with their
use on rough roads and farm tracks.
Right through to the first decades of the twentieth century,
manufacturers continued to seek a solution to realise the economic
benefits of direct-pull ploughing and, particularly in North America,
this led to the American development of the steam tractor. British companies such as Mann's and Garrett
developed potentially viable direct ploughing engines, however market
conditions were against them and they failed to gain widespread
popularity. These market conditions arose in the wake of the First World War
when there was a glut of surplus equipment available as a result of
British Government policy. Large numbers of Fowler ploughing engines had
been constructed in order to increase the land under tillage during the
war and many new light Fordson F tractors had been imported from 1917
onwards.
Preserved Burrell road locomotive pulling a water cart, near Jodrell Bank, Cheshire, England
Road steam disappeared through restrictions and charges that drove up
their operating costs. Through 1921, steam tractors had demonstrated
clear economic advantages over horse power for heavy hauling and short
journeys. However, petrol lorries were starting to show better
efficiency and could be purchased cheaply as war surplus; on a busy
route a 3-ton petrol lorry could save about £100 per month compared to
its steam equivalent, in spite of restrictive speed limits, and
relatively high fuel prices and maintenance costs.
Throughout the 1920s and 1930s there were tighter restrictions on road steam haulage, including speed, smoke and vapour limits
and a 'wetted tax', where the tax due was proportional to the size of
the wetted area of the boiler; this made steam engines less competitive
against domestically produced internal combustion engined units
(although imports were subject to taxes of up to 33%). As a result of
the Salter Report on road funding, an 'axle weight tax'
was introduced in 1933 in order to charge commercial motor vehicles
more for the costs of maintaining the road system and to do away with
the perception that the free use of roads was subsidising the
competitors of rail freight. The tax was payable by all road hauliers in
proportion to the axle load and was particularly restrictive on steam
propulsion, which was heavier than its petrol equivalent.
Initially, imported oil was taxed much more than British-produced coal, but in 1934 Oliver Stanley, the Minister for Transport,
reduced taxes on fuel oils while raising the Road Fund charge on road
locomotives to £100 per year, provoking protests by engine
manufacturers, hauliers, showmen and the coal industry. This was at a
time of high unemployment in the mining industry, when the steam haulage
business represented a market of 950,000 tons of coal annually. The tax
was devastating to the businesses of heavy hauliers and showmen and
precipitated the scrapping of many engines.
The last new UK-built traction engines were constructed during
the 1930s, although many continued in commercial use for many years
while there remained experienced engineers available to drive them.
From
the 1950s, the 'preservation movement' started to build up as
enthusiasts realised that traction engines were in danger of dying out.
Many of the remaining engines were bought by enthusiasts, and restored
to working order. Traction engine rallies began, initially as races
between engine owners and their charges, later developing into the
significant tourist attractions that take place in many locations each
year. It has been estimated that over two thousand traction engines have been preserved.
Although the first traction engines employed a chain drive, it is
more typical for large gears to be used to transfer the drive from the
crankshaft to the rear axle.
The machines typically have two large powered wheels at the back
and two smaller wheels for steering at the front. However, some traction
engines used a four-wheel-drive variation, and some experimented with
an early form of caterpillar track.
Traction
engines saw commercial use in a variety of roles between the
mid-nineteenth and mid-twentieth centuries. Each role required a machine
with a different set of characteristics, and the traction engine
evolved into a number of different types to suit these different roles.
Agricultural (general purpose) engine
An agricultural engine, towing a living van and a water cart:
"Big Lizzie", a purpose built tractor with two trailers, designed and built by Frank Bottrill using the Dreadnaught wheel
which he designed. When built "Big Lizzie" was the biggest tractor in
Australia and thought to be the biggest in the world, at 34 feet high by
18 feet wide, and weighing 45 tons.
The most common form in the countryside. They were used for hauling
and as a stationary power source. Even when farmers did not own such a
machine they would rely upon it from time to time. Many farms would use draught horses throughout the year, but during the harvest, threshing contractors would travel from farm to farm hauling the threshing machine which would be set up in the field and powered from the engine – a good example of the moveable stationary engine.
US (agricultural) traction engine
Favourable
soil conditions meant that US traction engines usually pulled their
ploughs behind them, thereby eliminating the complexities of providing a
cable drum and extra gearing, hence simplifying maintenance. American
traction engines were manufactured in a variety of sizes, with the 6 nhp
Russell being the smallest commercially made, and the large engines
made by Russell, Case, and Reeves being the largest.
Ploughing engine
A John Fowler & Co.
Ploughing Engine - the winding drum is mounted below the boiler (the
'drum' on the side is actually a hose for refilling the water tank). A
lockable tool box may be seen on the front axle; the 'spud tray' would
be mounted in the same way, behind the axle.
A distinct form of traction engine, characterised by the provision of
a large diameter winding drum driven by separate gearing from the steam
engine. Onto the drum a long length of wire rope was wound, which was used to haul an implement, such as a plough, across a field, while the engine remained on the headland. This minimized the area of land subject to soil compaction.
The winding drum was either mounted horizontally (below the
boiler), vertically (to one side), or even concentrically, so that it
encircled the boiler. The majority were underslung (horizontal),
however, and necessitated the use of an extra-long boiler to allow
enough space for the drum to fit between the front and back wheels.
These designs were the largest and longest traction engines to be built.
Mostly the ploughing engines worked in pairs, one on each side of
the field, with the rope from each machine fastened to the implement to
be hauled. The two drivers communicated by signals using the engine
whistles.
A variety of implements were constructed for use with ploughing engines. The most common were the balance plough and the cultivator
- ploughing and cultivating being the most physically demanding jobs to
do on an arable farm. Other implements could include a mole drainer,
used to create an underground drainage channel or pipe, or a dredger
bucket for dredging rivers or moats.
The engines were frequently provided with a 'spud tray' on the
front axle, to store the 'spuds' which would be fitted to the wheels
when travelling across claggy ground.
The man credited with the invention of the ploughing engine, in the mid-nineteenth century, was John Fowler, an English agricultural engineer and inventor. However a ploughing engine, devised by Peter, Lord Willoughby de Eresby and his bailiff George Gordon Scott, and constructed at Swindon Works, was exhibited at the Great Exhibition of 1851
in London, some years before Fowler's system appeared. Lord Willoughby
had indicated that his design could be copied freely, and Fowler had
visited Grimsthorpe Castle, the estate where the ploughing engines were deployed.
Ploughing engines were rare in the US; ploughs were usually hauled directly by an agricultural engine or steam tractor.