Difference between revisions of "AY Honors/Model Railroad/Answer Key"

From Pathfinder Wiki
< AY Honors‎ | Model RailroadAY Honors/Model Railroad/Answer Key
m (1 revision from w:Containerization)
m (- Category of AYHAB)
 
(147 intermediate revisions by 5 users not shown)
Line 1: Line 1:
{{Split|Containerization|Shipping container|date=November 2008}}
+
{{HonorSubpage}}
[[Image:Line3174 - Shipping Containers at the terminal at Port Elizabeth, New Jersey - NOAA.jpg|thumb|250px|Shipping containers at a terminal in [[Port Newark-Elizabeth Marine Terminal|Port Elizabeth, New Jersey]]]]
+
<section begin="Body" />
[[Image:WCML freight train.jpg|thumb|250px|A container freight train in the [[United Kingdom|UK]]]]
+
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=1}}
'''Containerization''' (or '''containerisation''') is a system of [[intermodal freight transport]] [[cargo]] [[transport]] using standard ''[[International Organization for Standardization|ISO]] containers'' (known as '''shipping containers''', '''ITUs''' ('''Intermodal Transport Units''') or '''isotainers''') that can be loaded and sealed intact onto [[container ship]]s, [[railroad car]]s, [[airplane|plane]]s, and [[truck]]s.
+
<noinclude><translate></noinclude>
 +
<!-- 1. Give the history and development of model railroading. -->
 +
===Practical Beginnings=== <!--T:37-->
 +
The development of model railroading runs, for the most part, parallel to the development of real-life (or 'prototype') railroading. The first model railroads appeared after 1810 and were one-of-a-kind creations used in designing or promoting their full-sized counterparts. Railroading was first developed to reduce the time and effort required to move raw materials or people over short distances made otherwise difficult by bad weather and poor roadways. The first rail cars were pulled along by animals, while steam-propelled machines, whether trains or automobiles, followed as quickly as the public was ready to adopt them. Various authors from diverse countries each lay different claims to the origins of both railroading and model railroading; and for this reason it is nearly impossible to reckon the precise date and location of the first model trains. By the 1830's, however, several countries including Germany, France, England and the United States were each developing steam-driven railroads to move freight and passengers. Original models of these first railroads are still on display in museums, and the first toy trains appeared not long after in German and British catalogs of the 1860's.
  
==History==
+
===On the Right Track=== <!--T:3-->
[[Image:Container ship loading-700px.jpg|thumb|A [[container ship]] being loaded by a [[portainer]] crane in [[Copenhagen]] Harbour.]]
+
The first toy trains of the 1840's actually ran on steam produced by filling the metallic model with water and placing in on a heating surface. These '[[w:Carpet_railway|carpet railways]]' didn't use track and often left a trail of water behind them. In 1891, the German company ''Märklin'' began offering a track system for its wind-up, or "clockwork," trains which were moving along on their own electric power within the decade. The famous American toy train manufacturer, ''Lionel,'' began selling its first sectional three-rail electric train track (later called "Standard Gauge") in 1906, just five years after their first store window display called the "Electric Express" captured public attention. By 1910, the British company ''Bassett-Lowke'' had opened a London showroom exclusively for its model trains. Other early toy train producers from around the world were ''Lima, Bing, Fleischmann'' and ''Rivarossi.''
[[Image:First level of twistlocks on a containership deck.jpg|thumb|Twistlocks which capture and constrain containers. [[Forklift]]s designed to handle containers have similar devices.]]
 
  
The introduction of containers resulted in vast improvements in port handling efficiency, thus lowering costs and helping lower freight charges and, in turn, boosting trade flows. Almost every manufactured product humans consume spends some time in a container.  
+
===The World's Greatest Hobby=== <!--T:4-->
 +
Today, dozens of manufacturers from around the world sell their model railroading products via thousands of catalogs, magazines, websites and hobby stores. Model railroading has many fascinating aspects to attract people with many different interests and skill sets. Some modelers continue to make many things, even engines track and cars, from scratch, while a satisfying railroading experience can be gained from many ready-made sets available right out of the box. Called by many [http://www.greatesthobby.com 'The World's Greatest Hobby'], model railroading will doubtless continue to be a source of great enjoyment for many years to come.
  
=== Origins ===
+
<!--T:38-->
Although having its origins in the late 1780s or earlier, the global standardisation of containers and container handling equipment was one of the important innovations in 20th century [[logistics]].
+
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 1 -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=2}}
 +
<noinclude><translate><!--T:39-->
 +
</noinclude>
 +
<!-- 2. Tell the difference in how the following prototype motive power units operate: -->
 +
<noinclude></translate></noinclude>
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=2a}}
 +
<noinclude><translate><!--T:40-->
 +
</noinclude>
 +
[[File:Steam locomotive work.gif|thumb|200px|Steam Locomotion]]
 +
Steam powered locomotives use burning coal or wood to heat water enclosed in a large boiler. The steam released from this boiler acts much like the steam that emanates from a kettle of boiling water on the stove. By channeling the steam’s pressure into an engine cylinder, it pushes a piston that provides mechanical power to the wheels. Steam locomotives dominated rail transport until the mid-1900’s when diesel and electric locomotives took over. Steam locomotives had to stop periodically to receive a new supply of water plus logs or coal.
 +
{{clear}}
  
By the 1830s, [[railroad]]s on several continents were carrying containers that could be transferred to trucks or ships, but these containers were invariably small by today's standards. Originally used for shipping coal on and off barges, 'loose boxes' were used to containerize coal from the late 1780s, on places like the [[Bridgewater Canal]]. By the 1840s, iron boxes were in use as well as wooden ones. The early 1900s saw the adoption of closed container boxes designed for movement between road and rail.
+
<!--T:41-->
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 2a -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=2b}} <!--T:6-->
 +
<noinclude><translate><!--T:42-->
 +
</noinclude>
 +
[[File:Three-loco-styles.jpg|thumb|200px|Three Diesel Locomotives]]
 +
Diesel locomotives burn diesel fuel in a combustion engine in virtually the same way as in the cars we use every day. The main difference between various types of diesel locomotives relates to how the power from its diesel engine is transferred to its drive wheels. Diesel locomotives were a great improvement over the steam locomotives in that they are quieter, cleaner, easier to maintain, and they can be started and stopped quickly, without the delay of waiting for water to boil. In mild weather, diesel engines don’t need to be left running to be ready to use at a moment’s notice, and diesel locomotives require far fewer people to operate them. Diesel locomotives continue to be used today.
 +
{{clear}}
  
In the [[United Kingdom]], several railway companies were using similar containers by the beginning of the 20th century and in the 1920s the [[Railway Clearing House]] standardised the RCH container. Five or ten foot long, wooden and non-stackable, these early standard containers were a great success but the standard remained UK-specific.
+
<!--T:43-->
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 2b -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=2c}} <!--T:7-->
 +
<noinclude><translate><!--T:44-->
 +
</noinclude>
 +
[[File:NECtrain3967.jpg|thumb|200px|An Electric Locomotive]]
 +
Electric locomotives get power to turn their wheels from electric motors housed inside. Most such locomotives receive their electrical power from overhead wires or an additional rail running alongside the rails used by the wheels. Some electric locomotives employ onboard batteries to drive them. Electricity became the preferred way of driving trains that had to travel underground or through frequent tunnels because they produce no exhaust as diesel or gasoline engines do. Another advantage is that they are virtually silent when operating and are easier to maintain because they utilize fewer moving parts than mechanical combustion engines.
 +
{{clear}}
  
From 1926 to 1947, in the US, the [[Chicago North Shore and Milwaukee Railway]] carried motor carrier vehicles and shippers' vehicles loaded on [[flatcar]]s between [[Milwaukee, Wisconsin|Milwaukee]], [[Wisconsin]] and [[Chicago, Illinois|Chicago]], [[Illinois]]. Beginning in 1929, [[Seatrain Lines]] carried railroad [[boxcar]]s on its sea vessels to transport goods between New York and Cuba. In the mid-1930s, the [[Chicago Great Western Railway]] and then the New Haven Railroad began "piggy-back" service (transporting highway freight trailers on flatcars) limited to their own railroads. By 1953, the [[Chicago, Burlington and Quincy Railroad|CB&Q]], the [[Chicago and Eastern Illinois Railroad|Chicago and Eastern Illinois]] and the [[Southern Pacific Railroad|Southern Pacific]] railroads had joined the innovation. Most cars were surplus flatcars equipped with new decks. By 1955, an additional 25 railroads had begun some form of piggy-back trailer service.  
+
<!--T:45-->
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 2c -->
 +
{{CloseReq}} <!-- 2 -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=3}}
 +
<noinclude><translate><!--T:46-->
 +
</noinclude>
 +
<!-- 3. Know the name, scale, and track gauge for four model railroad gauges. -->
 +
The six most popular scales used are: G scale, Gauge 1, O scale, H0 scale (in Britain, the similarly sized 00 is used), TT scale, and N scale (1:160), although there is growing interest in Z scale. H0 scale is the single most popular scale of model railroad. Popular narrow-gauge scales include HOn3 Scale and Nn3, which are the same scale as HO and N, except with a narrower spacing between the tracks (in these examples, a scale three feet instead of the 4'8.5" standard gauge).
  
Toward the end of [[World War II]], the [[United States Army]] began using specialized containers to speed up the loading and unloading of transport ships. The army used the term "transporters" to identify the containers, for shipping household goods of officers in the field. A "Transporter" was a reusable container, {{ft to m|8.5}} long, {{ft to m|6.25}} wide, and {{ft to m|6.83}} high, made of rigid steel with a carrying capacity of 9,000 pounds. During the [[Korean War]] the transporter was evaluated for handling sensitive military equipment, and proving effective, was approved for broader use. Theft of material and damage to wooden crates, in addition to handling time, by stevedores at the [[Pusan|Port of Pusan]], proved to the army that steel containers were needed. In 1952 the army began using the term CONEX, short for "Container Express". The first major shipment of CONEX's (containing engineering supplies and spare parts) were shipped by rail from the [[Columbus, Georgia|Columbus]] General Depot in Georgia to the [[Port of San Francisco]], then by ship to [[Yokohama]], [[Japan]], and then to Korea, in late 1952. Shipment times were cut almost in half. By the time of the [[Vietnam War]] the majority of supplies and materials were shipped with the CONEX. After the [[United States Department of Defense|U.S. Department of Defense]] standardized an 8'x8' cross section container in multiples of 10' lengths for military use it was rapidly adopted for shipping purposes.<ref name=CONEX>[http://www.transchool.eustis.army.mil/museum/CONEX.htm "History & Development of the Container"]. - U.S. Army Transportation Museum. - United States Army Transportation School. - Retrieved: 2007-12-29</ref><ref>[http://www.dtic.mil/doctrine/jel/doddict/acronym/c/01190.html CONEX]. - Defense Technical Information Center (DTIC)</ref> 
+
<!--T:9-->
 +
The words scale and gauge seem at first to be used interchangeably in model railways, but their meanings are different. Scale is the model's measurement as a proportion to the original, while gauge is the measurement between the two running rails of the track.
  
These standards were adopted in the United Kingdom for containers and rapidly displaced the older wooden containers in the 1950s.{{Fact|date=June 2008}}
+
<!--T:10-->
 
+
{| border=1 align="center"
Even the railways of the [[USSR]] had their own small containers. <ref>[http://freespace.virgin.net/neil.worthington/baku.htm Photos of containers in Baku<!-- Bot generated title -->]</ref> (The title of the photos is "Small Freight Containers of the former Soviet Union." These photos were not taken in the Soviet Union but in an independant Azerbaijan. Find pictures taken before the Soviet Union broke up.)
 
 
 
=== Purpose-built ships ===
 
{{main|Container ship}}
 
The first vessels purpose-built to carry containers began operation in [[Denmark]] in 1951. Ships began carrying containers between [[Seattle]] and [[Alaska]] in 1951. The world's first truly intermodal container system used the purpose-built container ship the ''[[Clifford J. Rodgers]]'', built in [[Montreal]] in 1955 and owned by the [[White Pass and Yukon Route]]. Its first trip carried 600 containers between [[North Vancouver, British Columbia|North Vancouver]], [[British Columbia]] and [[Skagway, Alaska|Skagway]], [[Alaska]], on [[November 26]], [[1955]]; in Skagway, the containers were unloaded to purpose-built [[railroad car]]s for transport north to the [[Yukon]], in the first [[intermodal freight transport|intermodal]] service using trucks, ships and railroad cars. Southbound containers were loaded by shippers in the Yukon, moved by rail, ship and truck, to their consignees, without opening. This first intermodal system operated from November 1955 for many years.
 
 
 
The U.S. container shipping industry dates to 1956, when trucking entrepreneur [[Malcom McLean]] put 58 containers aboard a refitted tanker ship, the ''Ideal-X'', and sailed them from Newark to Houston. What was new in the USA about McLean's innovation was the idea of using large containers that were never opened in transit between shipper and consignee and that were transferable on an intermodal basis, among trucks, ships and railroad cars. McLean had initially favored the construction of "trailerships" - taking trailers from large trucks and stowing them in a ship’s cargo hold. This method of stowage, referred to as [[roll-on/roll-off]], was not adopted because of the large waste in potential cargo space onboard the vessel, known as broken stowage. Instead, he modified his original concept into loading just the containers, not the chassis, onto the ships, hence the designation [[container ship]] or "box" ship.<ref name=CudahyB-TRN-2006-Sep-Oct>Cudahy, Brian J., -  [http://onlinepubs.trb.org/onlinepubs/trnews/trnews246.pdf "The Containership Revolution: Malcom McLean’s 1956 Innovation Goes Global"] ''TR News''. - (c/o National Academy of Sciences). - Number 246. - September-October 2006. - (Adobe Acrobat *.PDF document)</ref><ref name="box">{{cite book | author = Marc Levinson | title = The Box, How the Shipping Container Made the World Smaller and the World Economy Bigger | publisher = Princeton Univ. Press | year=  2006 | url = http://www.pupress.princeton.edu/titles/8131.html | isbn = ISBN 0-691-12324-1}}</ref> See also [[pantechnicon van]] and [[trolley and lift van]].
 
 
 
=== Towards standards ===
 
During the first twenty years of growth containerization meant using completely different, and incompatible, container sizes and corner fittings from one country to another.  There were dozens of incompatible container systems in the U.S. alone. Among the biggest operators, the [[Matson Navigation Company]] had a fleet of {{convert|24|ft|m|sing=on}} containers while [[Sea-Land Service, Inc]] used {{convert|35|ft|m|sing=on}} containers.  The standard sizes and fitting and reinforcement norms that exist now evolved out of a series of compromises among international shipping companies, [[Europe]]an railroads, U.S. railroads, and U.S. trucking companies.  Four important ISO recommendations standardised containerisation globally<ref name="Rushton"> Rushotn, A., Oxley, J., Croucher, P. (2004) ''The Handbook of Logistics and Distribution Management'' Kogan Page: London</ref>
 
*January 1968 - '''R-668''' defined the terminology, dimensions and ratings
 
*July 1968 - '''R-790''' defined the identification markings
 
*January 1970 - '''R-1161''' made recommendations about corner fittings
 
*October 1970 - '''R-1897''' set out the minimum internal dimensions of general purpose freight containers
 
 
 
In the United States, the [[Interstate Commerce Commission]] was created in 1887 to keep railroads from using monopolist pricing and rate discrimination on customers, especially rural Western farmers, but fell victim to [[regulatory capture]], and by the 1960s, before any shipper could carry different items in the same vehicle, or change rates, the shipper had to have ICC approval, which impeded containerization and other advances in shipping. The United States' present fully integrated systems became possible only after the ICC's regulatory oversight was cut back (and later abolished in 1995), trucking and rail were deregulated in the 1970s and maritime rates were deregulated in 1984. <ref>{{cite news| last =Postrel |first =Virginia |title =The Box that Changed the World | work =Dynamist.com | date =2006-03-23 | url =http://www.dynamist.com/weblog/archives/002097.html | accessdate =2008-02-14 }}</ref>
 
 
 
=== Today===
 
Containerization has revolutionized cargo shipping. Today, approximately 90% of non-[[bulk cargo]] worldwide moves by containers stacked on transport ships; 26% of all containers originate from [[China]].{{Fact|date=February 2007}} As of 2005, some 18 million total containers make over 200 million trips per year.  There are ships that can carry over {{TEU|14,500|first=yes}}, for example the "[[Emma Mærsk]]", 396 m long, launched August 2006.  It has even been predicted that, at some point, container ships will be constrained in size only by the depth of the [[Straits of Malacca]]—one of the world's busiest shipping lanes—linking the [[Indian Ocean]] to the [[Pacific Ocean]].  This so-called [[Malaccamax]] size constrains a ship to dimensions of 470&nbsp;m in length and 60&nbsp;m wide (1542 feet by 197 feet).<ref name="box"/>
 
 
 
However, few initially foresaw the extent of the influence containerization would bring to the shipping industry.  In the 1950s, [[Harvard University]] economist [[Benjamin Chinitz]] predicted that containerization would benefit [[New York]] by allowing it to ship industrial goods produced there more cheaply to the [[Southern United States]] than other areas, but did not anticipate that containerization might make it cheaper to import such goods from abroad.  Most economic studies of containerization merely assumed that shipping companies would begin to replace older forms of transportation with containerization, but did not predict that the process of containerization itself would have some influence on producers and the extent of trading.<ref name="box"/>
 
 
 
[[Image:Container wendy house.JPG|thumb|A converted container used as an office at a [[building site]].]]
 
The widespread use of ISO standard containers has driven modifications in other freight-moving standards, gradually forcing removable truck bodies or [[swap body|swap bodies]] into the standard sizes and shapes (though without the strength needed to be stacked), and changing completely the worldwide use of freight [[pallet]]s that fit into ISO containers or into commercial vehicles.
 
 
 
Improved cargo security is also an important benefit of containerization.  The cargo is not visible to the casual viewer and thus is less likely to be stolen and the doors of the containers are generally sealed so that tampering is more evident.  This has reduced the "falling off the truck" syndrome that long plagued the shipping industry.
 
 
 
Use of the same basic sizes of containers across the globe has lessened the problems caused by incompatible [[rail gauge]] sizes in different countries.  The majority of the rail networks in the world operate on a {{RailGauge|sg}} gauge track known as [[standard gauge]] but many countries (such as [[Russia]], [[Finland]], and [[Spain]]) use [[broad gauge|broader gauges]] while many other countries in [[Africa]] and [[South America]] use [[narrow gauge|narrower gauges]] on their networks. The use of container trains in all these countries makes trans-shipment between different gauge trains easier.
 
 
 
==ISO standard==
 
<!-- Please do not change the above heading - or if it has to be changed, then please change the huge number of links to Containerization#ISO_standard. -->
 
===Dimensions and payloads===<!-- this section name is linked from [[Port of Seattle]] -->
 
There are five common [[wikt:standardization|standard]] lengths, 20-ft (6.1 m), 40-ft (12.2 m), 45-ft (13.7 m), 48-ft (14.6 m), and 53-ft (16.2 m). [[United States]] domestic standard containers are generally {{convert|48|ft|m|abbr=on}} and 53-ft (rail and truck). Container capacity is often expressed in ''twenty-foot equivalent units'' ('''TEU''', or sometimes ''teu'').  An equivalent unit is a measure of containerized cargo capacity equal to one standard 20 ft (length) × 8 ft (width) container. As this is an approximate measure, the height of the box is not considered, for instance the 9 ft 6 in (2.9 m) ''High cube'' and the 4-ft 3-in (1.3 m) ''half height'' {{convert|20|ft|m|abbr=on}} containers are also called one TEU. Similarly, the 45-ft (13.7 m) containers are also commonly designated as two TEU, although they are 45 and not {{convert|40|ft|m}} long. Two TEU are equivalent to one ''forty-foot equivalent unit'' (''FEU'').
 
 
 
The use of [[United States customary units|Imperial measurements]] to describe container size (TEU, FEU) reflects the fact that US Department of Defense played a major part in the development of containers.  The overwhelming need to have a standard size for containers, in order that they fit all ships, cranes, and trucks, and the length of time that the current container sizes have been in use, makes changing to an even metric size impractical.
 
 
 
The maximum gross mass for a {{convert|20|ft|m|abbr=on}} dry cargo container is 24,000 kg, and for a 40-ft (including the 2.87 m (9 ft 6 in) high cube container), it is 30,480 kg. Allowing for the [[tare weight|tare mass]] of the container, the maximum payload mass is therefore reduced to approximately 21,600 kg for {{convert|20|ft|m|abbr=on}}, and 26,500 kg for {{convert|40|ft|m|abbr=on}} containers.<ref>{{cite web |url=http://www.emase.co.uk/data/cont.html |title=Shipping containers |publisher=Emase |accessdate=2007-02-10}}</ref>
 
 
 
Since November 2007 48-ft and {{convert|53|ft|m|abbr=on}} containers are used also for international ocean shipments. At the moment (April 2008) the only ocean company who offer such containers is [[American President Lines|APL]]<ref>[http://www.apl.com/equipment/html/equipment_specs_standard.html#48HC APL: Equipment Specifications - Standard Containers<!-- Bot generated title -->]</ref>. However, APL containers have slightly different sizes and weights than standard {{convert|48|ft|m|abbr=on}} and {{convert|53|ft|m|abbr=on}} containers (that are used in the US by rail and truck services).
 
 
 
===Standard containers===
 
The {{convert|40|ft|m|abbr=on}} container is the most popular container worldwide.{{Fact|date=February 2008}} Longer container types have become more common, especially in North America. Shorter containers (e.g. {{convert|10|ft|m|abbr=on}} containers) are rare.{{Fact|date=September 2008}}
 
 
 
The following table shows the weights and dimensions of the three most common types of containers worldwide. The weights and dimensions quoted below are averages, different manufacture series of the same type of container may vary slightly in actual size and weight.
 
 
 
{| class="prettytable"
 
|-bgcolor="#dfdfdf"
 
|colspan = "2" rowspan = "2"|
 
!colspan = "2"| 20′ container
 
!colspan = "2"| 40′ container
 
!colspan = "2"| 45′ high-cube container
 
|-bgcolor="#dfdfdf"
 
![[imperial system|imperial]]
 
![[metric system|metric]]
 
!imperial
 
!metric
 
!imperial
 
!metric
 
|-
 
!bgcolor="#dfdfdf" rowspan = "3" |external<br>dimensions
 
!bgcolor="#dfdfdf"|length
 
|align = "right"|20′ 0″
 
|align = "right"|6.096 m
 
|align = "right"|40′ 0″
 
|align = "right"|12.192 m
 
|align = "right"|45′ 0″
 
|align = "right"|13.716 m
 
 
|-
 
|-
!bgcolor="#dfdfdf"|width
+
!Name || Scale || Gauge
|align = "right"|8′ 0″
 
|align = "right"|2.438 m
 
|align = "right"|8′ 0″
 
|align = "right"|2.438 m
 
|align = "right"|8′ 0″
 
|align = "right"|2.438 m
 
 
|-
 
|-
!bgcolor="#dfdfdf"|height
+
| G scale ||1:22.5 || {{units|45 mm|1.75 inches}}
|align = "right"|8′ 6″
 
|align = "right"|2.591 m
 
|align = "right"|8′ 6″
 
|align = "right"|2.591 m
 
|align = "right"|9′ 6″
 
|align = "right"|2.896 m
 
 
|-
 
|-
!rowspan = "3" bgcolor="#dfdfdf"|interior<br>dimensions
+
| Gauge 1 ||1:32 ||{{units|44.45 mm|1.75 inches}}
!bgcolor="#dfdfdf"|length
 
|align = "right"|18′&nbsp;10&nbsp;{{frac|5|16}}″
 
|align = "right"|5.758 m
 
|align = "right"|39′&nbsp;5&nbsp;{{frac|45|64}}
 
|align = "right"|12.032 m
 
|align = "right"|44′ 4″
 
|align = "right"|13.556 m
 
 
|-
 
|-
!bgcolor="#dfdfdf"|width
+
| 0 scale ||1:43 or 1:48 ||{{units|32 mm|1.25 inches}}
|align = "right"|7′&nbsp;8&nbsp;{{frac|19|32}}″
 
|align = "right"|2.352 m
 
|align = "right"|7′&nbsp;8&nbsp;{{frac|19|32}}″
 
|align = "right"|2.352 m
 
|align = "right"|7′&nbsp;8&nbsp;{{frac|19|32}}
 
|align = "right"|2.352 m
 
 
|-
 
|-
!bgcolor="#dfdfdf"|height
+
| H0 scale ||1:87 ||{{units|16.5 mm|0.65 inches}}
|align = "right"|7′&nbsp;9&nbsp;{{frac|57|64}}″
 
|align = "right"|2.385 m
 
|align = "right"|7′&nbsp;9&nbsp;{{frac|57|64}}″
 
|align = "right"|2.385 m
 
|align = "right"|8′&nbsp;9&nbsp;{{frac|15|16}}
 
|align = "right"|2.698 m
 
 
|-
 
|-
!rowspan = "2" bgcolor="#dfdfdf"|door aperture
+
| TT scale ||1:120 ||{{units|12 mm|0.47 inches}}
!bgcolor="#dfdfdf"|width
 
|align = "right"|7′&nbsp;8&nbsp;⅛″
 
|align = "right"|2.343 m
 
|align = "right"|7′&nbsp;8&nbsp;⅛″
 
|align = "right"|2.343 m
 
|align = "right"|7′&nbsp;8&nbsp;⅛″
 
|align = "right"|2.343 m
 
 
|-
 
|-
!bgcolor="#dfdfdf"|height
+
| N scale ||1:148 to 1:160 || {{units|9 mm|0.354 inches}}
|align = "right"|7′&nbsp;5&nbsp;¾″
 
|align = "right"|2.280 m
 
|align = "right"|7′&nbsp;5&nbsp;¾″
 
|align = "right"|2.280 m
 
|align = "right"|8′&nbsp;5&nbsp;{{frac|49|64}}
 
|align = "right"|2.585 m
 
 
|-
 
|-
!colspan = "2" bgcolor="#dfdfdf"|volume
+
| Z scale ||1:220 ||{{units|6.5 mm|0.256 inches}}
|align = "right"|1,169 ft³
 
|align = "right"|33.1 m³
 
|align = "right"|2,385 ft³
 
|align = "right"|67.5
 
|align = "right"|3,040 ft³
 
|align = "right"|86.1 m³
 
|-
 
!colspan = "2" bgcolor="#dfdfdf"|maximum<br>gross mass
 
|align = "right"|66,139 lb
 
|align = "right"|30,400 kg
 
|align = "right"|66,139 lb
 
|align = "right"|30,400 kg
 
|align = "right"|66,139 lb
 
|align = "right"|30,400 kg
 
|-
 
!colspan = "2" bgcolor="#dfdfdf"|empty weight
 
|align = "right"|4,850 lb
 
|align = "right"|2,200 kg
 
|align = "right"|8,380 lb
 
|align = "right"|3,800 kg
 
|align = "right"|10,580 lb
 
|align = "right"|4,800 kg
 
|-
 
!colspan = "2" bgcolor="#dfdfdf"|net load
 
|align = "right"|61,289 lb
 
|align = "right"|28,200 kg
 
|align = "right"|57,759 lb
 
|align = "right"|26,600 kg
 
|align = "right"|55,559 lb
 
|align = "right"|25,600 kg
 
 
|}
 
|}
  
20-ft, "heavy tested" containers are available for heavy goods (e.g. heavy machinery). These containers allow a maximum weight of 67,200&nbsp;lb (30,480&nbsp;kg), an empty weight of 5,290&nbsp;lb (2,400&nbsp;kg), and a net load of 61,910&nbsp;lb (28,080&nbsp;kg).
+
<!--T:47-->
 
+
<noinclude></translate></noinclude>
=== Tunnels ===
+
{{CloseReq}} <!-- 3 -->
 
+
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=4}}
The original choice of 8 foot high for ISO containers was made in part to suit a large proportion of railway tunnels, though some had to be deepened. With the arrival of even taller container, further enlargement is proving necessary. <ref> http://railwaysafrica.com/index.php?option=com_content&task=view&id=3493&Itemid=36 </ref>
+
<noinclude><translate></noinclude>
 
+
<!-- 4. Know the shapes and names of at least eight track plan arrangements. -->
=== Types ===
+
==='''Oval'''=== <!--T:48-->
Various container types are available for different needs:<ref>{{cite web| title =Selecting a Container | publisher =CMA CGM Group| year =2006 | url =http://www.cma-cgm.com/Images/ContentManagement/AboutUs/PressRoom/Brochures/Documents/Containers.pdf | accessdate =2008-02-14|format=PDF}}</ref>
+
[[File:Model Railroad Oval Track.gif|thumb|200px|Oval Layout Design]]
* General purpose ''dry van'' for boxes, cartons, cases, sacks, bales, pallets, drums in standard, high or half height
+
The simplest layout for a model railroad and the starting point for most designs. In this design, two straightaway segments are connected by a semi-circle at each end. This is also the only layout which can easily be created with sectional track without the use of a manufacturer-specific design. Curved sectional track is sold by radii (half the distance across the semi-circle) and a box of such track sections will almost always create exactly half a circle. The two straightaway sections will usually utilize multiple pieces of sectional straight track, as desired by the modeler.
* High cube palletwide containers for [[pallet|europallet]] compatibility
+
{{clear}}
* Temperature controlled from −25 °C to +25 °C ''[[reefer (container)|reefer]]''
+
==='''Figure-Eight'''===
* Open top ''bulktainers'' for bulk minerals, heavy machinery
+
[[File:Model Railroad Figure-Eight Track.gif|thumb|200px|Figure-Eight Layout Design]]
* Open side for loading oversize pallet
+
The second most common beginner's layout. This layout is best accomplished by purchasing it as a single set or following a manufacturer's layout design using their sectional track. The intersection in the center of the layout can either be accomplished by a piece of crossover track, or by elevating one track over the other. In the latter case, a set of piers or risers will be needed to raise the track at an appropriate rate.
* Flushfolding flat-rack containers for heavy and bulky semi-finished goods, out of gauge cargo
+
{{clear}}
* Platform or bolster for barrels and drums, crates, cable drums, out of gauge cargo, machinery, and processed timber
+
==='''Twice-Around'''===
* Ventilated containers for organic products requiring ventilation
+
[[File:Model Railroad Twice-Around Track.gif|thumb|200px|Twice-Around Layout Design]]
* Tank containers for bulk liquids and [[dangerous goods]]
+
A modification of the figure-eight, in which one end-loop is contained within the other. The crossover here is not at 90° like in the basic figure-eight example and can be accomplished by using a alternately angled crossover piece or by using elevated track to pass one track over the other. The twice-around layout design allows the train to run continuously for longer than the simple oval before reaching its starting point.
* Rolling floor for difficult to handle cargo
+
{{clear}}
* Gas bottle
+
==='''Point-to-Point'''===
* Generator
+
[[File:Model Railroad Point-to-Point Track.gif|thumb|200px|Point-to-Point Layout Design]]
* Collapsible ISO
+
This design does not allow a train to run continuously indefinitely, as you might imagine most plans would allow. However, this is the design that most closely resembles real-life railroad operation, since real-life railroads run across country, not in loops or circles. You can construct more elaborate yards at each end in order to enjoy the complexities of real-world operation.
* Swapbody
+
{{clear}}
 
+
==='''Out-and-Back'''===
=== Numbering ===
+
[[File:Model Railroad Out-and-Back Track.gif|thumb|200px|Out-and-Back Layout Design]]
{{main|ISO 6346}}
+
This design approximates real-world operation, as each train must make a journey before it returns to the yard from which it originated. Although real freight never returns to its origin the same way it left, this arrangement does allows you to concentrate your time and resources on one yard instead of the two required in a Point-to-Point design (above).
Each container is allocated a [[reporting mark]] (ownership code) four characters long ending in the letter U, followed by 6 numbers and a check digit.
+
{{clear}}
 
+
==='''Loop-to-Loop'''===
[[Image:singapore port panorama.jpg|thumb|center|700px|Containers on the [[Port of Singapore]]]]
+
[[File:Model Railroad Loop-to-Loop Track.gif|thumb|200px|Loop-to-Loop Layout Design]]
 
+
This design diverges from realistic operation, but does allow the operator to interact with a continuous-running train. A yard can be added in the middle of the layout to simulate freight coming in from each direction. When modeling with two-rail scales, such as HO and smaller, special wiring will be required to insulate each loop from the rest of the line and allow the direction to be reversed on the mainline.
=== Air freight containers ===
+
{{clear}}
[[Image:LD-air-freight-containers.jpg|thumb|A number of LD-designation [[Unit Load Device]] containers.]]
+
==='''Dog Bone'''===
 
+
[[File:Model Railroad Dog-Bone Track.gif|thumb|200px|Dog-Bone Layout Design]]
{{main|Unit Load Device}}
+
This design is similar to the loop-to-loop design, but allows for continuous running without intervention from an operator. In addition, the two tracks running side-by-side simulate the double-track lines often seen in real life.
 
+
{{clear}}
While major airlines use containers that are custom designed for their aircraft and associated ground handling equipment the [[International Air Transport Association|IATA]] has created a set of standard container sizes, the LD-designation sizes are shown below:
+
==='''Twisted Dog Bone'''===
 +
[[File:Model Railroad Twisted-Dog-Bone Track.gif|thumb|200px|Twisted-Dog-Bone Layout Design]]
 +
This design is adds additional length to the mainline featured in the basic dog-bone design (above). Keeping one or both of the end-loops out of sight allows this layout to very realistically simulate the long distance running of a real railroad.  
 +
{{clear}}
  
{| class="wikitable"
+
<!--T:49-->
|-
+
<noinclude></translate></noinclude>
! Designation
+
{{CloseReq}} <!-- 4 -->
! Width (in)
+
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=5}}
! Height (in)
+
<noinclude><translate></noinclude>
! Depth (in)
+
<!-- 5. Know at least six points to check for the maintenance of a model railroading layout. -->
! Base (In)
+
===Cleaning & Checking Basic Trackwork=== <!--T:50-->
! Max load (lb)
+
Most model railroads receive power for their electric motors through the tracks they run on. Thus, track must be kept clean and free of even the smallest obstructions. A train running on a dirty track does not operate smoothly or realistically, or may not run at all! The space between rails must also be maintained, though this is more of an issue when individual rails and ties have been laid down by hand. Sectional track usually maintains its proper gauge (space between the rails). Rail cleaning solution can be safely wiped across model track and track-cleaning cars are also available for running around the layout and cleaning hard-to-reach places.
! Max load (kg)
+
===Checking Wheels and Couplers===
! Shape
+
Locomotives and cars are kept rolling along together by various types of 'couplers.' These can be very tiny on the smaller model railroad scales, but in any case, they must be kept clean and properly hooked together for a train to run along smoothly. Another common problem is derailment when a car's wheels come off the track. This can also be harder to detect on smaller scale trains, but it will eventually get noticed as cars may tip completely off the track. Nevertheless, derailment is the most common operating problem encountered and should be one of the first possibility to check when things are going wrong.
|-
+
===Lubricating Engine Drive Mechanisms===
| LD-1
+
Most model locomotives are powered by electric motors which involve a minimum of moving parts. There are typically tiny gears used in transferring the turning motor's power to the drive wheels of the locomotive. These are easily lubricated with special grease and/or oil available from a hobby supply store. Be careful to follow both the engine and lubricant manufacturers' instructions. Most wheels on other non-powered cars do not need to be oiled or greased except in rare cases.
| 92.0
+
===Detailing Scenes & Structures===
| 64.0
+
Model structures and landscape gather dust, making them look less realistic. These elements of a typical layout should be well anchored with adhesive when they are first installed so that their surfaces can be brushed clean, repainted, re-weathered and even vacuumed. In addition, its fun and rewarding to keep a layout fresh by installing new structures or creating new track-side scenes once your basic modeling is complete.
| 60.4
+
===Testing Electrical Connections===
| 61.5
+
Most model locomotives receive their power from the tracks below through one or more of their wheel sets. Since these wheels are turning, they transmit their power through stationary metal brushes that maintain contact with the tiny axle running between these wheels. These brushes should be kept clean and checked whenever an electrical problem is suspected. In addition, the wires which run from the operator's power pack to the rails themselves can become tangled, shorted out (when they inadvertently touch each other), or disconnected all leading to potential breakdown in the power supplied to the model railroad. A simple electric meter available from a hobby or electronics store can help determine where a breakdown is occurring by testing (1) the output of the power pack directly, (2) the presence of power on the set of tracks where the train is located, or (3) at any control point in between, such as when a control panel switch is used to control power to different track sections.
| 3500
+
===Adjusting Turnouts, Switch Machines & Ground Throws===
| ~1588
+
Turnouts (sometimes called 'switches') are used to send a train from one set of track to another. These are easy places for trains to become derailed because the wheels must pass over a series of changeable mechanical parts that are more complex than the simple two (or three) rails used elsewhere in the layout. The 'points' of a switch are moved between two different resting positions which determine what path the trail will take after it passes through the turnout. These points must rest securely against either the inside or outside rail and must not move otherwise. If the points are moved remotely, by an electrical signal sent from the control panel to a 'switch machine' next to the turnout, then this switch machine and its associated wiring must be in good working order. If the switch is operated by hand using a small lever or 'ground throw' next to the turnout, then the ground throw needs to be kept clean and lubricated and able to move the points the full distance between their two desired positions.
| Type A
+
<noinclude></translate></noinclude>
|-
+
{{CloseReq}} <!-- 5 -->
| LD-2
+
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=6}}
| 61.5
+
<noinclude><translate><!--T:51-->
| 64.0
+
</noinclude>
| 47.0
+
<!-- 6. Identify and explain the use of: -->
| 61.5
+
<noinclude></translate></noinclude>
| 2700
+
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=6a}}
| ~1225
+
<noinclude><translate></noinclude>
| Type A
+
==== Covered Hopper ==== <!--T:52-->
|-
+
[[Image:6619.JPG|thumb|200px|Covered hopper]]
| LD-3
+
Structurally, a covered hopper is very similar to an open­top hopper car. What distinguishes this type of car from an open hopper is the car's roof, and also the car's overall size. Covered hoppers typically carry loads of less dense, and therefore lighter, materials, so they are built to a higher cubic capacity than open top hoppers.  
| 79.0
+
{{clear}}
| 64.0
 
| 60.4
 
| 61.5
 
| 3500
 
| ~1588
 
| Type A
 
|-
 
| LD-4
 
| 96.0
 
| 64.0
 
| 60.4
 
| n/a
 
| 5400
 
| ~2449
 
| Rectangular
 
|-
 
| LD-5
 
| 125.0
 
| 64.0
 
| 60.4
 
| n/a
 
| 7000
 
| ~3175
 
| Rectangular
 
|-
 
| LD-6
 
| 160.0
 
| 64.0
 
| 60.4
 
| 125.0
 
| 7000
 
| ~3175
 
| Type B
 
|-
 
| LD-7
 
| 125.0
 
| 64.0
 
| 80.0
 
| n/a
 
| 13300
 
| ~6033
 
| Rect. or Contoured
 
|-
 
| LD-8
 
| 125.0
 
| 64.0
 
| 60.4
 
| 96.0
 
| 5400
 
| ~2449
 
| Type B
 
|-
 
| LD-9
 
| 125.0
 
| 64.0
 
| 80.0
 
| n/a
 
| 13300
 
| ~6033
 
| Rect. or Contoured
 
|-
 
| LD-10
 
| 125.0
 
| 64.0
 
| 60.4
 
| n/a
 
| 7000
 
| ~3175
 
| Contoured
 
|-
 
| LD-11
 
| 125.0
 
| 64.0
 
| 60.4
 
| n/a
 
| 7000
 
| ~3175
 
| Rectangular
 
|-
 
| LD-29
 
| 186.0
 
| 64.0
 
| 88.0
 
| 125.0
 
| 13300
 
| ~6033
 
| Type B
 
|}
 
  
LD-1, -2, -3, -4, and -8 are those most widely used, together with the rectangular M3 containers.
+
====Box Car==== <!--T:13-->
 +
[[Image:CIL 1620 20050710 IN Linden.jpg|thumb|200px|Box car]]
 +
A boxcar (the American term; the British call this kind of car a "goods van" while in Australia, they are usually referred to as "louvre vans") is a railroad car that is enclosed and generally used to carry general freight. The boxcar, while not the simplest freight car design, is probably the most versatile, since it can carry most loads. Boxcars have side doors of varying size and operation, and some include end doors and adjustable bulkheads to load very large items.
 +
{{clear}}
  
== Issues ==
+
====Container Car==== <!--T:14-->
=== Increased efficiency ===
+
[[Image:Containerzug 100 7207.jpg|thumb|200px|Container cars]]
Although there have been few direct correlations made between containers and job losses, there are a number of texts associating job losses at least in part with containerization. A 1998 study of post-containerization employment at United States ports found that container cargo could be moved nearly twenty times faster than pre-container break bulk.<ref>{{cite journal | last =Herod | first =Andrew | title = Discourse on the Docks: Containerization and Inter-Union Work Disputes in US Ports, 1955-85 | journal = Transactions of the Institute of British Geographers | volume =23 | issue =2 | pages = 177–191 | publisher = The Royal Geographical Society | location = United Kingdom | year = 1998 | url =http://links.jstor.org/sici?sici=0020-2754%281998%292%3A23%3A2%3C177%3ADOTDCA%3E2.0.CO%3B2-R | accessdate =2008-02-14 | doi = 10.1111/j.0020-2754.1998.00177.x}}</ref> The new system of shipping also allowed for freight consolidating jobs to move from the waterfront to points far inland, which also decreased the number of waterfront jobs.
+
''Containerization'' is a system of intermodal freight transport cargo transport using standard ISO containers known as ''shipping containers'' that can be loaded and sealed intact onto container ships, railroad cars, planes, and trucks. The introduction of containers resulted in vast improvements in port handling efficiency, thus lowering costs and helping lower freight charges and, in turn, boosting trade flows. Almost every manufactured product humans consume spends some time in a container.
 +
{{clear}}
 +
====Flat car====
 +
[[Image:JNR type tora70000 flatcar.jpg|thumb|200px|Flat car]]
 +
A flatcar (also flat car) is a piece of railroad rolling stock that consists of an open, flat deck on four or six wheels or a pair of trucks (US) or bogies (UK). The deck of the car can be wood or steel, and the sides of the deck can include pockets for stakes or tie-down points to secure loads. Flatcars designed for carrying machinery have sliding chain assemblies recessed in the deck. Flatcars are used for loads that are too large or cumbersome to load in enclosed cars such as boxcars. They are also often used to transport containers or trailers in intermodal shipping.
 +
{{clear}}
 +
====Gondola====
 +
[[Image:PhosphateGon.JPG|thumb|200px|Gondola car]]
 +
A gondola is an open-top type of rolling stock that is used for carrying loose bulk materials. Because of its low side walls, gondolas are used to carry either very dense material, such as steel plates or coils, or bulky items such as prefabricated pieces of rail track.
 +
{{clear}}
 +
====Refrigerator Car====
 +
[[Image:ARMN 761511 20050529 IL Rochelle.jpg|thumb|200px|Modern refrigerator car: note the grill at the lower right (the car's "A" end) where the mechanical refrigeration unit is housed.]]
 +
A refrigerator car (or "reefer") is a refrigerated boxcar, a piece of railroad rolling stock designed to carry perishable freight at specific temperatures. Refrigerator cars differ from simple insulated boxcars and ventilated boxcars (commonly used for transporting fruit), neither of which are fitted with cooling apparatus. Reefers were originally ice-cooled, but now are equipped with any one of a variety of mechanical refrigeration systems.
 +
{{clear}}
  
=== Additional fuel costs ===
+
====Stock Car==== <!--T:15-->
Containerisation increases the fuel costs of transport and reduces the capacity of the transport as the container itself must be shipped around not just the goods. For certain bulk products this makes containerisation unattractive. For most goods the increased fuel costs and decreased transport efficiencies are currently more than offset by the handling savings.{{Fact|date=July 2008}}
+
In railroad terminology, a stock car is a type of rolling stock used for carrying livestock (not carcasses) to market. A traditional stock car resembles a boxcar with slats missing in the car's side (and sometimes end) for the purpose of providing ventilation; stock cars can be single-level for large animals such as cattle or horses, or they can have two or three levels for smaller animals such as sheep, pigs, and poultry.
 +
{{clear}}
 +
====Tank Car====
 +
[[Image:TILX290344.JPG|thumb|200px|Tank car]]
 +
A tank car is a type of railroad rolling stock designed to transport liquid and gaseous commodities. Outside of North America, they are also known as tank wagons or tanker wagons.
 +
{{clear}}
  
=== Hazards===
+
<!--T:53-->
Containers have been used to smuggle [[contraband]]. The vast majority of containers are never subjected to scrutiny due to the large number of containers in use. In recent years there have been increased concerns that containers might be used to transport [[terrorist]]s or terrorist materials  into a country undetected. The U.S. government has advanced the [[Container Security Initiative]] (CSI), intended to ensure that high-risk cargo is examined or scanned, preferably at the port of departure.
+
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 6a -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=6b}} <!--T:16-->
 +
<noinclude><translate></noinclude>
 +
====Coach Cars==== <!--T:54-->
 +
[[File:UICX Rome.jpg|thumb|200px|A coach car in Rome]]
 +
The most basic passenger car, the coach car is lined with rows of seats like a bus. In some cases, a set of seats will face each other making it possible for passengers to pass the time in conversation. Passengers with carry-on baggage usually find overhead or under-seat storage available. In large, metropolitan areas, many people ride on the coach cars of their commuter trains every day to get to and from work. Some coach cars have seating on two levels which doubles their capacity to transport passengers.
 +
{{clear}}
  
=== Empty containers ===
+
====Dining Cars==== <!--T:17-->
Containers are intended to be used constantly, being loaded with a new cargo for a new destination soon after being emptied of the previous cargo. This is not always possible, and in some cases the cost of transporting an empty container to a place where it can be used is considered to be higher than the worth of the used container. This can result in large areas in ports and warehouses being occupied by empty containers left abandoned. However, empty containers may also be recycled in the form of [[shipping container architecture]], or the steel content salvaged.
+
[[File:Buffet dining car SBB.jpg|thumb|200px|A Swiss dining car modeled by Roco]]
 +
A dining car serves food to its passengers. Its like a long, narrow restaurant on wheels. The rail line must employ extra personnel to prepare food and wait on the passengers. A more limited version of the dining car is the "lounge" car, which serves only refreshments and can provide passengers with larger, more comfortable seats rather than tables to sit at.
 +
{{clear}}
  
=== Loss at sea ===
+
====Observation Cars==== <!--T:18-->
Containers occasionally fall from the ships that carry them, usually during storms; it is estimated that over 10,000 containers are lost at sea each year.<ref>Podsada, Janice. (2001-06-19) 'Lost Sea Cargo: Beach Bounty or Junk?', ''National Geographic News''.[http://news.nationalgeographic.com/news/2001/06/0619_seacargo.html] Retrieved 2007-04-17</ref> For instance, on November 30, 2006, a [http://content.hamptonroads.com/story.cfm?story=115267&ran=146714 container washed ashore] on the Outer Banks of [[North Carolina]], along with thousands of bags of its cargo of [[Doritos|Doritos Chips]]. Containers lost at sea do not necessarily sink, but seldom float very high out of the water, making them a shipping hazard that is difficult to detect. Freight from lost containers has provided [[oceanographer]]s with unexpected opportunities to track global [[ocean current]]s, notably a cargo of [[Friendly Floatees]].<ref>[http://www.cbsnews.com/stories/2003/07/31/eveningnews/main566138.shtml "Rubber Duckies Map The World"] - [[CBS News]] - July 31, 2003</ref>
+
[[File:VIA Passenger Train.jpg|thumb|200px|A Canadian observation car]]
 +
The observation car is almost always the last car in a passenger train in order to take advantage of the view from the rear of the train. It might have other features that provide sleeping, refreshments or food, but it almost always has larger windows around the car and a U-shaped lounge at the end where passengers can see the view where the train has just traversed. Observation cars modeled on older era railroads might have a small open-air porch off the rear of the last car.
 +
{{clear}}
  
In 2007 the [[International Chamber of Shipping]] and the [[World Shipping Council]] began work on a code of practice for container storage, including crew training on parametric rolling, safer stacking and marking of containers and security for above-deck cargo in heavy swell.<ref>{{cite news |title =Banana box slip a worry | work =Lloyd's List Daily Commercial News | publisher =Informa Australia | date =2008-02-07 | url =http://www.lloydslistdcn.com.au/informaoz/LLDCN/home.jsp?source=fresh | accessdate =2008-02-14 }}</ref>
+
====Sleeping Cars==== <!--T:19-->
 +
[[File:Type T2 sleeping car.jpg|thumb|200px|A model sleeping car by Rivarossi]]
 +
"Sleepers" are sometimes called "Pullman cars" in the United States because of the Pullman Company that manufactured a great deal of them beginning in the mid-1800's. Some beds are designed to either roll or fold out of the way or convert into seats for daytime use, while some sleeping compartments look like small personal apartments with their own bathrooms.
 +
{{clear}}
  
== Double-stack containerization ==
+
<!--T:55-->
[[Image:DTTX 724681 20050529 IL Rochelle.jpg|thumb|Part of a [[United States]] double-stack container train loaded with 53&nbsp;ft (16.2&nbsp;m) containers.]]
+
<noinclude></translate></noinclude>
[[Image:Railroad car with container loads.jpg|thumb|A railroad car with a 20' tank container and a conventional 20' container.]]
+
{{CloseReq}} <!-- 6b -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=6c}} <!--T:20-->
 +
<noinclude><translate><!--T:56-->
 +
</noinclude>
 +
[[File:Alco 2-6-6 NYC.jpg|thumb|200px|A New York 2-6-6 Locomotive]]
 +
[[File:Central Sucre 2-4-0.jpg|thumb|200px|A Central Sucre 2-4-0 Locomotive]]
 +
[[File:92220 Evening Star (Dave Cooper).jpg|thumb|200px|Standard Class 9F 2-10-0 Locomotive]]
 +
Steam locomotives are described most commonly by how many wheels they have in each of three sections. The most notable set of wheels are the drive wheels which are usually larger and are connected by the rods which power them. The other two sets of wheels are both smaller and lie ahead of and behind the central drive wheels. Since there are at most three sets of wheels, a locomotive classification will have three numbers separated by dashes. If a locomotive has only drive wheels, the first and last numbers will still appear, but will both be zero. This classification system counts all the wheels (both sides) so when looking at the side of a locomotive, remember to multiply what you see by two.
  
Most [[flatcar]]s cannot carry more than one standard {{convert|40|ft|m|sing=on}} container, but if the rail line has been built with sufficient vertical clearance, a [[double-stack car]] can accept a container and still leave enough clearance for another container on top.  This usually precludes operation of double-stacked wagons on lines with overhead electric wiring. However, the [[Betuweroute]], which was planned with overhead wiring from the start, has been built with tunnels that do accommodate double-stacked wagons so as to keep the option to economically rebuild the route for double stacking in the future. The overhead wiring would then have to be changed to allow double stacking.<ref>{{cite web| title =Betuweroute:Frequently Asked Questions | publisher =Ministry of Transport, Public Works and Water Management, Government of the Netherlands | year =2007 | url =http://en.betuweroute.nl/home/veel_gestelde_vragen?itemID=89&categorie_id=1&setlanguage=en | accessdate =2008-02-14}}</ref> Lower than standard size containers are run double stacked under overhead wire in China.<ref>{{cite news| last =Das |first =Manumi|title =Spotlight on double-stack container movement | work =The Hindu Business Line | publisher =The Hindu Group | date =2007-10-15 | url =http://www.thehindubusinessline.com/2007/10/15/stories/2007101551550600.htm | accessdate =2008-02-14}}</ref>
+
<!--T:21-->
 +
Pictured to the right are a 2-6-6, a 2-4-0, and a 2-10-0.  
  
===History===
+
<!--T:22-->
* {{flagicon|United States}}/{{flagicon|Canada}}/{{flagicon|Mexico}} — [[Southern Pacific Railroad]], with [[Malcom McLean]], (SP) came up with the idea of the first double-stack intermodal car in 1977.<ref name=CudahyB-TRN-2006-Sep-Oct /><ref>[http://www.uprr.com/aboutup/history/uprr-chr.shtml Chronological History] - Union Pacific Railroad Company</ref> SP then designed the first car with [[American Car and Foundry Company|ACF Industries]] that same year.<ref>Kaminski, Edward S. (1999). - ''American Car & Foundry Company: A Centennial History, 1899-1999''. - Wilton, California: Signature Press. - ISBN 0963379100</ref><ref>[http://www.encyclopedia.com/doc/1G1-9055386.html "A new fleet shapes up. (High-Tech Railroading)"]. - ''[[Railway Age]]''. - (c/o HighBeam Research). - September 1, 1990</ref> At first it was slow to become an industry standard, then in 1984 [[American President Lines]], started working with the SP and that same year, the first all "double stack" train left [[Los Angeles, California]] for [[South Kearny, New Jersey]], under the name of "Stacktrain" rail service. Along the way the train transferred from the SP to [[Consolidated Rail Corporation|Conrail]].  It saved shippers money and now accounts for almost 70 percent of [[intermodal freight transport]] shipments in the United States, in part due to the generous vertical clearances used by U.S. railroads. These lines are diesel operated with no [[Overhead lines|overhead wiring]].
+
''An excellent diagram with all of a Steam Locomotive's parts is available at Wikipedia: [[w:Steam_locomotive_parts|Steam Locomotive Parts]].''
* {{flagicon|Australia}} — Double stacking is also used in [[Transport in Australia|Australia]] between [[Adelaide]], [[Parkes]], [[Perth, Western Australia|Perth]] and [[Darwin, Northern Territory|Darwin]].  These are diesel only lines with no [[Overhead lines|overhead wiring]].
+
{{clear}}
* {{flagicon|India}} — Double stacking is proposed in India for selected freight-only lines.  These would be electrified lines with specially high [[Overhead lines|overhead wiring]].
 
  
== Other uses for containers ==
+
<!--T:57-->
[[Shipping container architecture]] is the use of containers as the basis for housing and other functional buildings for people, either as temporary housing or permanent, and either as a main building or as a cabin or workshop. Containers can also be used as sheds or storage areas in industry and commerce.
+
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 6c -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=6d}} <!--T:23-->
 +
<noinclude><translate></noinclude>
 +
====Uncontrolled Crossings ==== <!--T:58-->
 +
[[File:American Crossbuck.jpg|thumb|150px|The American Crossbuck]]
 +
"Open" or "Uncontrolled" crossings utilize a sign with or without flashing lights and an audible bell warning. These are considered 'open' because there is no barricade to the passage of pedestrians or traffic. In America, the 'crossbuck' is most typically seen at graded crossings. This is the familiar white "X" shape with the words "RAILROAD" and "CROSSING" printed on them.
 +
{{clear}}
  
== Companies ==
+
====Controlled Crossings ==== <!--T:24-->
=== Biggest ISO container companies ===
+
[[File:Finnish level crossing activated.jpg|thumb|150px|Gated Crossing in Finland]]
{| class="wikitable"
+
The most typical method of controlling a railroad crossing is with automatic close-able gates. In addition to flashing lights and warning bell, the gates make it difficult for cars or pedestrians to cross the tracks when they are down. Gated crossings have become more elaborate in recent years because accidents can still occur if cars try to drive around the gates.
|+ Top 10 container shipping companies in order of TEU capacity, first January 2006
+
{{clear}}
|-
 
! Company !! TEU capacity<ref>{{cite web | url = http://www.brs-paris.com/newsletters/liner_studies/no29/ | month= January | year= 2006 | title = Liner market shares | publisher = BRS report for Alphaliner }}</ref> !! Market Share !! Number of ships
 
|-
 
| [[A.P. Moller-Maersk Group]] || 1,665,272 || 18.2% || 549
 
|-
 
| [[Mediterranean Shipping Company S.A.]] || 865,890|| 11.7% || 376
 
|-
 
| [[CMA CGM]] || 507,954 || 5.6% || 256
 
|-
 
| [[Evergreen Marine Corporation]] || 477,911 || 5.2% || 153
 
|-
 
| [[Hapag-Lloyd]] || 412,344 || 4.5% || 140
 
|-
 
| [[China Shipping Container Lines]] || 346,493 || 3.8% || 111
 
|-
 
| [[American President Lines]] || 331,437 || 3.6% || 99
 
|-
 
| [[Hanjin-Senator]] || 328,794 || 3.6% || 145
 
|-
 
| [[COSCO]] || 322,326 || 3.5% || 118
 
|-
 
| [[NYK Line]] || 302,213 || 3.3% || 105
 
|}
 
  
=== Other container systems ===
+
<!--T:59-->
* [[Haus-zu-Haus]] (Germany)
+
<noinclude></translate></noinclude>
* [[RACE (container)]] (Australia)
+
{{CloseReq}} <!-- 6d -->
* [[Hellenic Container Transport Ltd]] (Greece)
+
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=6e}} <!--T:25-->
 +
<noinclude><translate></noinclude>
 +
====Mechanical Semaphore Signals ==== <!--T:60-->
 +
[[File:Lower Signal 1.jpg|thumb|100px|Mechanical Semaphore Signal]]
 +
Mechanical semaphores utilize a moveable arm (or 'blade') whose position indicates how approaching trains may proceed. A set of differently colored lenses are also mounted on the arm, each passing in front of a stationary light when the arm moves, so that the semaphore can effectively signal trains at night.
  
== International ==
+
====Colored Light Signals ==== <!--T:26-->
Before the International Standard Container appeared, various countries had their own containers. These containers were generally small, and not able to be stacked one upon another. Clearly the idea of containerisation is not new, though the implementation of the ISO container was much better done.
+
[[File:Railroad lamp-2.jpg|thumb|100px|Colored Light Signal]]
 +
These signals control train movements by displaying one of several colors of lights. They can also position the lights differently in order to send additional information to the engineer.
 +
{{clear}}
  
=== Australia ===
+
<!--T:61-->
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 6e -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=6f}} <!--T:27-->
 +
<noinclude><translate><!--T:62-->
 +
</noinclude>
 +
Besides track, locomotives and cars, a realistic model railroad will probably have several structures as part of the layout, such as:
  
* Less than Car Load (LCL) <ref name="APL">{{cite book | last = Gunn | first = John | authorlink = | coauthors = | title = Along Parallel Lines: A History of the Railways of New South Wales | publisher = Melbourne University Press | year = 1989 | location = | pages = 387 | url = http://books.google.com/books?pg=PA387&lpg=PA387&dq=australia+%22less+than+car+load%22&sig=37LZY_tLobTsi7CvVe55T48UlYA&id=gEXRJBBpB2MC&ots=GKLmyt9iSh&output=html | doi = | id = | isbn = 0522843875 }}</ref>
+
<!--T:28-->
 +
<gallery perrow=3 widths=220px>
 +
File:RRTrussBridgeSideView.jpg|<center>A Truss Bridge</center>
 +
File:Wellington, llinois elevator.png |<center>A Grain Elevator</center>
 +
File:EBT Roundhouse 2.jpg|<center>A Roundhouse with Turntable</center>
 +
File:Abfaltersbach station.JPG|<center>A Station</center>
 +
File:Madison, NJ, train station platform.jpg|<center>A Platform</center>
 +
File:TchopitoulasIllinoisCentralWarehouse.jpg|<center>A Warehouse</center>
 +
</gallery>
  
=== Germany ===
+
<!--T:63-->
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 6f -->
 +
{{CloseReq}} <!-- 6 -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7}}
 +
<noinclude><translate><!--T:64-->
 +
</noinclude>
 +
<!-- 7. Know the meaning of the following model railroad terms: -->
 +
<noinclude></translate></noinclude>
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7a}}
 +
<noinclude><translate><!--T:65-->
 +
</noinclude>
 +
Rock or gravel poured between railroad ties to secure them in place and stabilize the track.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7a -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7b}}
 +
<noinclude><translate><!--T:66-->
 +
</noinclude>
 +
Driving wheels on a steam locomotive with a large number of wheel sets. These were driving wheels without the usual flanges, allowing a larger number of wheels to negotiate a turn without binding up against the rails.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7b -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7c}}
 +
<noinclude><translate><!--T:67-->
 +
</noinclude>
 +
A section of model track which is electrically insulated from its surrounding sections so that engines on it can be controlled independent of trains on other engines.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7c -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7d}}
 +
<noinclude><translate><!--T:68-->
 +
</noinclude>
 +
A beam that transfers the weight of a railcar to its truck.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7d -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7e}}
 +
<noinclude><translate><!--T:69-->
 +
</noinclude>
 +
A place where pedestrian or automobile traffic crosses the railroad.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7e -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7f}}
 +
<noinclude><translate><!--T:70-->
 +
</noinclude>
 +
A place where two railroad tracks cross each other.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7f -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7g}}
 +
<noinclude><translate><!--T:71-->
 +
</noinclude>
 +
The use of two locomotives to pull an especially long and heavy train.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7g -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7h}}
 +
<noinclude><translate><!--T:72-->
 +
</noinclude>
 +
Part of a railcar's coupling system which allows for some flexing in the tension between cars.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7h -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7i}}
 +
<noinclude><translate><!--T:73-->
 +
</noinclude>
 +
The larger, flat part of a trains wheels that descend below the track's top surface on the inside edge, thus holding the car on the track as it moves.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7i -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7j}}
 +
<noinclude><translate><!--T:74-->
 +
</noinclude>
 +
At the center of a turnout, it is the small X-shaped piece of track that enables a train's wheels to cross over the inside rail.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7j -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7k}}
 +
<noinclude><translate><!--T:75-->
 +
</noinclude>
 +
A space between rails so that they are electrically insulated from one another. This is done so that the two rails do not short together, or so they can be on different circuits.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7k -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7l}}
 +
<noinclude><translate><!--T:76-->
 +
</noinclude>
 +
Sometimes used to describe the size of track and cars used on a certain model railroad, it more accurately measures the space between the rails of that railroad's track.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7l -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7m}}
 +
<noinclude><translate><!--T:77-->
 +
</noinclude>
 +
A measurement of the steepness of the track when it is not flat or level with the ground. It is measured in degrees according to its angle from level ground.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7m -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7n}}
 +
<noinclude><translate><!--T:78-->
 +
</noinclude>
 +
A place for storing, sorting or processing train cars which uses track set at an angle with the ground in order to let gravity move cars when needed.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7n -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7o}}
 +
<noinclude><translate><!--T:79-->
 +
</noinclude>
 +
A wheel bearing that has become excessively hot because of friction.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7o -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7p}}
 +
<noinclude><translate><!--T:80-->
 +
</noinclude>
 +
A non-conducting clip, usually made of plastic, that allows two pieces of track to be connected physically while remaining independent electronically. Used between distinct ''blocks'' of track.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7p -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7q}}
 +
<noinclude><translate><!--T:81-->
 +
</noinclude>
 +
A bearing in which the shaft between two wheels rotates against the car's truck with the help of lubrication supplied within a journal box, often seen on a train car's trucks.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7q -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7r}}
 +
<noinclude><translate><!--T:82-->
 +
</noinclude>
 +
An arrangement of model railroad track, structures and scenery that models real-life railroad operation in a contained area.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7r -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7s}}
 +
<noinclude><translate><!--T:83-->
 +
</noinclude>
 +
The route a train takes from one destination to another, independent of track used in yards, sidings or spurs.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7s -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7t}}
 +
<noinclude><translate><!--T:84-->
 +
</noinclude>
 +
The real-life railroad operation and equipment upon which a model railroad is based.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7t -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7u}}
 +
<noinclude><translate><!--T:85-->
 +
</noinclude>
 +
A metallic clip placed on the bottom flange at the end of a section of track allowing it to be connected both physically and electrically to the next piece of track on the line.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7u -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7v}}
 +
<noinclude><translate><!--T:86-->
 +
</noinclude>
 +
A length of track which, by use of one or more turnouts, returns a train to its originating position facing the opposite way from which it left.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7v -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7w}}
 +
<noinclude><translate><!--T:87-->
 +
</noinclude>
 +
A section of track that runs parallel to the mainline and allows a train to stop and be passed by another train occupying the same mainline.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7w -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7x}}
 +
<noinclude><translate><!--T:88-->
 +
</noinclude>
 +
A dead-end piece of track which accepts cars to be delivered from the mainline or prepared for shipment to another destination via the mainline.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7x -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7y}}
 +
<noinclude><translate><!--T:89-->
 +
</noinclude>
 +
Something which routes power or trains between two or more options. When routing trains, it is best to use 'turnout' to distinguish the track mechanism from the electronic toggle switch that activates it from the layout's control panel.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7y -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7z}}
 +
<noinclude><translate><!--T:90-->
 +
</noinclude>
 +
Refers in model railroading to the small mechanism attached to a turnout which allows it to be operated by remote-control from the layout's control panel.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7z -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7aa}}
 +
<noinclude><translate><!--T:91-->
 +
</noinclude>
 +
A model railroad truck with its own attached coupler. Although Talgo trucks permit model trains to operate on smaller radius curves, they can be more likely to derail when trains are pushed, rather than pulled.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7aa -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7bb}}
 +
<noinclude><translate><!--T:92-->
 +
</noinclude>
 +
A single, solid piece of hardware mounted to the bottom of a railroad car or locomotive to which is attached on or more sets of wheels. On train cars, trucks usually contain two sets of wheels and can swivel beneath the car when the train is navigating a turn.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7bb -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7cc}}
 +
<noinclude><translate><!--T:93-->
 +
</noinclude>
 +
A mechanism for allowing a train to leave one set of tracks and join another. Sometimes called a 'switch.'
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7cc -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7dd}}
 +
<noinclude><translate><!--T:94-->
 +
</noinclude>
 +
A standard of model railroading which does not employ a separate (third) rail for power. Layouts using two-rail modeling systems must employ special wiring when a wye or reverse loop exists within the layout's design.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7dd -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7ee}}
 +
<noinclude><translate><!--T:95-->
 +
</noinclude>
 +
A triangle-shaped junction of two railroad lines in which one line joins another with the option of going either direction on the second line.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7ee -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7ff}}
 +
<noinclude><translate><!--T:96-->
 +
</noinclude>
 +
A turnout in which both branches leave the turnout at a different angle from the original line. Most turnouts have one straight-through line and a ''single'' branch that leaves the line in a different direction.
 +
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 7ff -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=7gg}}
 +
<noinclude><translate><!--T:97-->
 +
</noinclude>
 +
A set of tracks which branch off of the mainline and allow train cars to be sorted, reordered or stored while they are en route to their destination.
  
* Von Haus zu Haus (from House to House)
+
<!--T:30-->
 +
{| border="1" cellspacing = "0" cellpadding = "5" align="center""
 +
!'''For Further Information:
  
== BBC tracking project ==
+
<!--T:31-->
{{Main|The Box (BBC container)}}
+
A good glossary of model railroad terms is available under <u>[http://greatesthobby.com/wgh/MS_2249.html Frequently Asked Questions]</u> on the [http://greatesthobby.com World's Greatest Hobby website]
On [[5 September]] [[2008]] the [[BBC]] embarked on a year-long project to study [[international trade]] and [[globalization]] by tracking a shipping container on its journey around the world.<ref name="BBCBoxlaunch">{{cite web|url=http://news.bbc.co.uk/1/hi/business/7600180.stm |publisher=BBC News| title=The Box takes off on global journey|date=2008-09-08}}</ref><ref>{{cite web|url=http://bbc.co.uk/thebox|title=BBC - The Box|date=5 September 2008|publisher=BBC|accessdate=2008-09-05}}</ref>
 
  
== See also ==
+
<!--T:32-->
{{Commonscat}}
+
A similar list of terms for prototype railroading can be found under <u>[[w:Rail_terminology|Rail Terminology]]</u> on [[w:Main page|Wikipedia]].'''
{|
 
|-valign=top
 
|
 
* [[Break bulk]]
 
* [[Bulk cargo]]
 
* [[Sidelift]]
 
* [[ISO 6346|Container numbering]]
 
* [[Container ship]]
 
* [[Container terminal]]
 
* [[Intermodal freight transport]]
 
* [[ISO 668]]
 
* [[Portainer]] cranes
 
| width=40 |
 
|
 
* [[RORO]]
 
* [[Semi-trailer truck]]
 
* [[Shipping container architecture]]
 
* [[Shipping line]]
 
* [[Tank car#Tanktainers|Tanktainers]]
 
* [[Unit Load]], [[Unit Load Device]], [[Pallet]]
 
* [[World petroleum crisis]]
 
* [[List of busiest container ports]]
 
 
|}
 
|}
  
==References==
+
<!--T:98-->
{{reflist}}
+
<noinclude></translate></noinclude>
 
+
{{CloseReq}} <!-- 7gg -->
==Further reading==
+
{{CloseReq}} <!-- 7 -->
{{Wiktionarypar2|containerization|isotainer}}
+
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=8}}
; Economy
+
<noinclude><translate><!--T:99-->
* {{cite book | author = Brian J. Cudahy | title = Box Boats |  publisher = Fordham University Press | month=  April | year=  2006 | id = ISBN 0-8232-2568-2 | url = http://fordhampress.com/detail.html?id=9780823225682 }} — How Container Ships Changed the World
+
</noinclude>
* {{cite book | author = Frank Broeze | title = The Globalisation of the Oceans | publisher = International Maritime Economic History Association | year=  2002 | id = ISBN 0-9730073-3-8}} — Containerisation from the 1950s to the Present
+
<!-- 8. Construct a portion of a model railroad layout. In your construction, do the following: <br> a. Assist in assembling the framework <br> b. Install a section of ballast <br> c. Install a section of track <br> d. Install at least one turnout, including the wiring <br> e. Assist in making scenery, such as trees, rocks, mountains, or grass <br> f. Make one model railroading building or structure <br> g. Assist in the wiring to supply electrical power to the tracks -->
* {{ cite web | url = http://www.wired.com/wired/archive/7.10/ports.html | title = The 20-Ton Packet | author = Stewart Taggart | publisher = [[Wired Magazine]]|month=October | year=1999}}
+
You can do this on your own, or as part of a club (either a group of Pathfinders earning the honor together, or as part of a model railroading club). Because there are a lot of requirements to meet here, it would be a good idea to make a checklist so you can be sure you have met each.
* {{ cite web | url = http://www.aapa-ports.org/Industry/content.cfm?ItemNumber=900 | title = Port Industry Statistics | publisher = American Association of Port Authorities }}
 
* {{ cite book | author = Marc Levinson | title = [[The Box (Book)|The Box]]: How the Shipping Container Made the World Smaller and the World Economy Bigger | publisher = Princeton University Press | year=  2006 | id = ISBN 0-691-12324-1}}
 
 
 
; Technique
 
* [[ASTM]] D 5728 Standard Practice for Securement of Cargo in Intermodal and Unimodal Surface Transport
 
* {{ cite web | url = http://www.tis-gdv.de/tis_e/containe/inhalt1.htm | title = Transport Information Service : containers | publisher = German Insurance Association}} — types, inspection, climate, stowage, securing, capacity
 
* {{cite web | url = http://www.exportacion-importacion.com/contenido.php | title = Container Dimensions and Capacity | publisher = 54-11.com}}
 
* {{ cite web | url = http://www.containerhandbuch.de/chb_e/ | title = Container Handbook | publisher = German Insurance Association | year=  2006 }}
 
* {{ cite web | url = http://hazmat.dot.gov/pubs/erg/erg2004.pdf | title = Emergency Response Guidebook | year=  2004 | format = [[Portable Document Format|PDF]] | publisher = Transport Canada, the U.S. Department of Transportation, and the Secretariat of Communications and Transport of Mexico}} — a guidebook for first responders during the initial phase of a dangerous goods/hazardous materials incident
 
* {{cite web | url = http://www.export911.com/e911/ship/dimen.htm | title = Container Dimensions and Capacity | publisher = Export 911}}
 
 
 
; In Fiction
 
* {{ cite book | author = William Gibson | title = Spook Country | publisher = Putnam Publishing Group | month=  August | year=  2007 | id = ISBN 0-399-15430-2}} — Novel set in U.S., wherein mystery surrounding a containerized shipment serves as the [[MacGuffin]]
 
{{Freight cars}}
 
{{ModernMerchantShipTypes}}
 
  
[[Category:Commercial item transport and distribution]]
+
<!--T:100-->
[[Category:Containers]]
+
<noinclude></translate></noinclude>
 +
{{CloseReq}} <!-- 8 -->
 +
{{ansreq|page={{#titleparts:{{PAGENAME}}|2|1}}|num=9}}
 +
<noinclude><translate><!--T:101-->
 +
</noinclude>
 +
<!-- 9. Successfully operate a model railroad train on the layout you have assisted in building. -->
 +
Once you have built (or have helped build) a model set, how can you pass up the opportunity to operate it? In reality, the set will be operated several times during construction to test each new addition. If possible, why not transport the setup to your church for Pathfinder Sabbath?
  
[[bg:Контейнер]]
+
<!--T:102-->
[[cs:Kontejner]]
+
<noinclude></translate></noinclude>
[[da:ISO-container]]
+
{{CloseReq}} <!-- 9 -->
[[de:ISO-Container]]
+
<noinclude><translate></noinclude>
[[et:Konteiner]]
+
==References== <!--T:35-->
[[el:Εμπορευματοκιβώτιο]]
+
<noinclude></translate></noinclude>
[[es:Contenedor]]
+
{{CloseHonorPage}}
[[eo:Kontenero]]
 
[[fa:بارگنج]]
 
[[fr:Conteneur]]
 
[[ko:컨테이너리제이션]]
 
[[id:Peti kemas]]
 
[[it:Container]]
 
[[he:מכולה]]
 
[[lt:Konteineris]]
 
[[hu:Konténer]]
 
[[nl:Container (kist)]]
 
[[ja:コンテナ]]
 
[[no:Container (transport)]]
 
[[pl:Kontener (transport)]]
 
[[pt:Container (transporte)]]
 
[[ru:ISO-контейнер]]
 
[[sk:Kontajner ISO]]
 
[[fi:Kontti]]
 
[[sv:Container]]
 
[[vi:Côngtenơ hóa]]
 
[[uk:Контейнер]]
 
[[zh:集装箱]]
 

Latest revision as of 16:07, 14 July 2022

Other languages:
English • ‎español
Model Railroad

Skill Level

2

Year

1967

Version

06.06.2024

Approval authority

General Conference

Model Railroading AY Honor.png
Model Railroad
Arts, Crafts and Hobbies
Skill Level
123
Approval authority
General Conference
Year of Introduction
1967
See also


1

Give the history and development of model railroading.


Practical Beginnings

The development of model railroading runs, for the most part, parallel to the development of real-life (or 'prototype') railroading. The first model railroads appeared after 1810 and were one-of-a-kind creations used in designing or promoting their full-sized counterparts. Railroading was first developed to reduce the time and effort required to move raw materials or people over short distances made otherwise difficult by bad weather and poor roadways. The first rail cars were pulled along by animals, while steam-propelled machines, whether trains or automobiles, followed as quickly as the public was ready to adopt them. Various authors from diverse countries each lay different claims to the origins of both railroading and model railroading; and for this reason it is nearly impossible to reckon the precise date and location of the first model trains. By the 1830's, however, several countries including Germany, France, England and the United States were each developing steam-driven railroads to move freight and passengers. Original models of these first railroads are still on display in museums, and the first toy trains appeared not long after in German and British catalogs of the 1860's.

On the Right Track

The first toy trains of the 1840's actually ran on steam produced by filling the metallic model with water and placing in on a heating surface. These 'carpet railways' didn't use track and often left a trail of water behind them. In 1891, the German company Märklin began offering a track system for its wind-up, or "clockwork," trains which were moving along on their own electric power within the decade. The famous American toy train manufacturer, Lionel, began selling its first sectional three-rail electric train track (later called "Standard Gauge") in 1906, just five years after their first store window display called the "Electric Express" captured public attention. By 1910, the British company Bassett-Lowke had opened a London showroom exclusively for its model trains. Other early toy train producers from around the world were Lima, Bing, Fleischmann and Rivarossi.

The World's Greatest Hobby

Today, dozens of manufacturers from around the world sell their model railroading products via thousands of catalogs, magazines, websites and hobby stores. Model railroading has many fascinating aspects to attract people with many different interests and skill sets. Some modelers continue to make many things, even engines track and cars, from scratch, while a satisfying railroading experience can be gained from many ready-made sets available right out of the box. Called by many 'The World's Greatest Hobby', model railroading will doubtless continue to be a source of great enjoyment for many years to come.


2

Tell the difference in how the following prototype motive power units operate:


2a

Steam


Steam Locomotion

Steam powered locomotives use burning coal or wood to heat water enclosed in a large boiler. The steam released from this boiler acts much like the steam that emanates from a kettle of boiling water on the stove. By channeling the steam’s pressure into an engine cylinder, it pushes a piston that provides mechanical power to the wheels. Steam locomotives dominated rail transport until the mid-1900’s when diesel and electric locomotives took over. Steam locomotives had to stop periodically to receive a new supply of water plus logs or coal.


2b

Diesel


Three Diesel Locomotives

Diesel locomotives burn diesel fuel in a combustion engine in virtually the same way as in the cars we use every day. The main difference between various types of diesel locomotives relates to how the power from its diesel engine is transferred to its drive wheels. Diesel locomotives were a great improvement over the steam locomotives in that they are quieter, cleaner, easier to maintain, and they can be started and stopped quickly, without the delay of waiting for water to boil. In mild weather, diesel engines don’t need to be left running to be ready to use at a moment’s notice, and diesel locomotives require far fewer people to operate them. Diesel locomotives continue to be used today.


2c

Electric


An Electric Locomotive

Electric locomotives get power to turn their wheels from electric motors housed inside. Most such locomotives receive their electrical power from overhead wires or an additional rail running alongside the rails used by the wheels. Some electric locomotives employ onboard batteries to drive them. Electricity became the preferred way of driving trains that had to travel underground or through frequent tunnels because they produce no exhaust as diesel or gasoline engines do. Another advantage is that they are virtually silent when operating and are easier to maintain because they utilize fewer moving parts than mechanical combustion engines.



3

Know the name, scale, and track gauge for four model railroad gauges.


The six most popular scales used are: G scale, Gauge 1, O scale, H0 scale (in Britain, the similarly sized 00 is used), TT scale, and N scale (1:160), although there is growing interest in Z scale. H0 scale is the single most popular scale of model railroad. Popular narrow-gauge scales include HOn3 Scale and Nn3, which are the same scale as HO and N, except with a narrower spacing between the tracks (in these examples, a scale three feet instead of the 4'8.5" standard gauge).

The words scale and gauge seem at first to be used interchangeably in model railways, but their meanings are different. Scale is the model's measurement as a proportion to the original, while gauge is the measurement between the two running rails of the track.

Name Scale Gauge
G scale 1:22.5 45 mm1.75 inches
Gauge 1 1:32 44.45 mm1.75 inches
0 scale 1:43 or 1:48 32 mm1.25 inches
H0 scale 1:87 16.5 mm0.65 inches
TT scale 1:120 12 mm0.47 inches
N scale 1:148 to 1:160 9 mm0.354 inches
Z scale 1:220 6.5 mm0.256 inches


4

Know the shapes and names of at least eight track plan arrangements.


Oval

Oval Layout Design

The simplest layout for a model railroad and the starting point for most designs. In this design, two straightaway segments are connected by a semi-circle at each end. This is also the only layout which can easily be created with sectional track without the use of a manufacturer-specific design. Curved sectional track is sold by radii (half the distance across the semi-circle) and a box of such track sections will almost always create exactly half a circle. The two straightaway sections will usually utilize multiple pieces of sectional straight track, as desired by the modeler.

Figure-Eight

Figure-Eight Layout Design

The second most common beginner's layout. This layout is best accomplished by purchasing it as a single set or following a manufacturer's layout design using their sectional track. The intersection in the center of the layout can either be accomplished by a piece of crossover track, or by elevating one track over the other. In the latter case, a set of piers or risers will be needed to raise the track at an appropriate rate.

Twice-Around

Twice-Around Layout Design

A modification of the figure-eight, in which one end-loop is contained within the other. The crossover here is not at 90° like in the basic figure-eight example and can be accomplished by using a alternately angled crossover piece or by using elevated track to pass one track over the other. The twice-around layout design allows the train to run continuously for longer than the simple oval before reaching its starting point.

Point-to-Point

Point-to-Point Layout Design

This design does not allow a train to run continuously indefinitely, as you might imagine most plans would allow. However, this is the design that most closely resembles real-life railroad operation, since real-life railroads run across country, not in loops or circles. You can construct more elaborate yards at each end in order to enjoy the complexities of real-world operation.

Out-and-Back

Out-and-Back Layout Design

This design approximates real-world operation, as each train must make a journey before it returns to the yard from which it originated. Although real freight never returns to its origin the same way it left, this arrangement does allows you to concentrate your time and resources on one yard instead of the two required in a Point-to-Point design (above).

Loop-to-Loop

Loop-to-Loop Layout Design

This design diverges from realistic operation, but does allow the operator to interact with a continuous-running train. A yard can be added in the middle of the layout to simulate freight coming in from each direction. When modeling with two-rail scales, such as HO and smaller, special wiring will be required to insulate each loop from the rest of the line and allow the direction to be reversed on the mainline.

Dog Bone

Dog-Bone Layout Design

This design is similar to the loop-to-loop design, but allows for continuous running without intervention from an operator. In addition, the two tracks running side-by-side simulate the double-track lines often seen in real life.

Twisted Dog Bone

Twisted-Dog-Bone Layout Design

This design is adds additional length to the mainline featured in the basic dog-bone design (above). Keeping one or both of the end-loops out of sight allows this layout to very realistically simulate the long distance running of a real railroad.


5

Know at least six points to check for the maintenance of a model railroading layout.


Cleaning & Checking Basic Trackwork

Most model railroads receive power for their electric motors through the tracks they run on. Thus, track must be kept clean and free of even the smallest obstructions. A train running on a dirty track does not operate smoothly or realistically, or may not run at all! The space between rails must also be maintained, though this is more of an issue when individual rails and ties have been laid down by hand. Sectional track usually maintains its proper gauge (space between the rails). Rail cleaning solution can be safely wiped across model track and track-cleaning cars are also available for running around the layout and cleaning hard-to-reach places.

Checking Wheels and Couplers

Locomotives and cars are kept rolling along together by various types of 'couplers.' These can be very tiny on the smaller model railroad scales, but in any case, they must be kept clean and properly hooked together for a train to run along smoothly. Another common problem is derailment when a car's wheels come off the track. This can also be harder to detect on smaller scale trains, but it will eventually get noticed as cars may tip completely off the track. Nevertheless, derailment is the most common operating problem encountered and should be one of the first possibility to check when things are going wrong.

Lubricating Engine Drive Mechanisms

Most model locomotives are powered by electric motors which involve a minimum of moving parts. There are typically tiny gears used in transferring the turning motor's power to the drive wheels of the locomotive. These are easily lubricated with special grease and/or oil available from a hobby supply store. Be careful to follow both the engine and lubricant manufacturers' instructions. Most wheels on other non-powered cars do not need to be oiled or greased except in rare cases.

Detailing Scenes & Structures

Model structures and landscape gather dust, making them look less realistic. These elements of a typical layout should be well anchored with adhesive when they are first installed so that their surfaces can be brushed clean, repainted, re-weathered and even vacuumed. In addition, its fun and rewarding to keep a layout fresh by installing new structures or creating new track-side scenes once your basic modeling is complete.

Testing Electrical Connections

Most model locomotives receive their power from the tracks below through one or more of their wheel sets. Since these wheels are turning, they transmit their power through stationary metal brushes that maintain contact with the tiny axle running between these wheels. These brushes should be kept clean and checked whenever an electrical problem is suspected. In addition, the wires which run from the operator's power pack to the rails themselves can become tangled, shorted out (when they inadvertently touch each other), or disconnected all leading to potential breakdown in the power supplied to the model railroad. A simple electric meter available from a hobby or electronics store can help determine where a breakdown is occurring by testing (1) the output of the power pack directly, (2) the presence of power on the set of tracks where the train is located, or (3) at any control point in between, such as when a control panel switch is used to control power to different track sections.

Adjusting Turnouts, Switch Machines & Ground Throws

Turnouts (sometimes called 'switches') are used to send a train from one set of track to another. These are easy places for trains to become derailed because the wheels must pass over a series of changeable mechanical parts that are more complex than the simple two (or three) rails used elsewhere in the layout. The 'points' of a switch are moved between two different resting positions which determine what path the trail will take after it passes through the turnout. These points must rest securely against either the inside or outside rail and must not move otherwise. If the points are moved remotely, by an electrical signal sent from the control panel to a 'switch machine' next to the turnout, then this switch machine and its associated wiring must be in good working order. If the switch is operated by hand using a small lever or 'ground throw' next to the turnout, then the ground throw needs to be kept clean and lubricated and able to move the points the full distance between their two desired positions.


6

Identify and explain the use of:


6a

Five types of freight cars


Covered Hopper

Covered hopper

Structurally, a covered hopper is very similar to an open­top hopper car. What distinguishes this type of car from an open hopper is the car's roof, and also the car's overall size. Covered hoppers typically carry loads of less dense, and therefore lighter, materials, so they are built to a higher cubic capacity than open top hoppers.

Box Car

Box car

A boxcar (the American term; the British call this kind of car a "goods van" while in Australia, they are usually referred to as "louvre vans") is a railroad car that is enclosed and generally used to carry general freight. The boxcar, while not the simplest freight car design, is probably the most versatile, since it can carry most loads. Boxcars have side doors of varying size and operation, and some include end doors and adjustable bulkheads to load very large items.

Container Car

Container cars

Containerization is a system of intermodal freight transport cargo transport using standard ISO containers known as shipping containers that can be loaded and sealed intact onto container ships, railroad cars, planes, and trucks. The introduction of containers resulted in vast improvements in port handling efficiency, thus lowering costs and helping lower freight charges and, in turn, boosting trade flows. Almost every manufactured product humans consume spends some time in a container.

Flat car

Flat car

A flatcar (also flat car) is a piece of railroad rolling stock that consists of an open, flat deck on four or six wheels or a pair of trucks (US) or bogies (UK). The deck of the car can be wood or steel, and the sides of the deck can include pockets for stakes or tie-down points to secure loads. Flatcars designed for carrying machinery have sliding chain assemblies recessed in the deck. Flatcars are used for loads that are too large or cumbersome to load in enclosed cars such as boxcars. They are also often used to transport containers or trailers in intermodal shipping.

Gondola

Gondola car

A gondola is an open-top type of rolling stock that is used for carrying loose bulk materials. Because of its low side walls, gondolas are used to carry either very dense material, such as steel plates or coils, or bulky items such as prefabricated pieces of rail track.

Refrigerator Car

Modern refrigerator car: note the grill at the lower right (the car's "A" end) where the mechanical refrigeration unit is housed.

A refrigerator car (or "reefer") is a refrigerated boxcar, a piece of railroad rolling stock designed to carry perishable freight at specific temperatures. Refrigerator cars differ from simple insulated boxcars and ventilated boxcars (commonly used for transporting fruit), neither of which are fitted with cooling apparatus. Reefers were originally ice-cooled, but now are equipped with any one of a variety of mechanical refrigeration systems.

Stock Car

In railroad terminology, a stock car is a type of rolling stock used for carrying livestock (not carcasses) to market. A traditional stock car resembles a boxcar with slats missing in the car's side (and sometimes end) for the purpose of providing ventilation; stock cars can be single-level for large animals such as cattle or horses, or they can have two or three levels for smaller animals such as sheep, pigs, and poultry.

Tank Car

Tank car

A tank car is a type of railroad rolling stock designed to transport liquid and gaseous commodities. Outside of North America, they are also known as tank wagons or tanker wagons.


6b

Three types of passenger cars


Coach Cars

A coach car in Rome

The most basic passenger car, the coach car is lined with rows of seats like a bus. In some cases, a set of seats will face each other making it possible for passengers to pass the time in conversation. Passengers with carry-on baggage usually find overhead or under-seat storage available. In large, metropolitan areas, many people ride on the coach cars of their commuter trains every day to get to and from work. Some coach cars have seating on two levels which doubles their capacity to transport passengers.

Dining Cars

A Swiss dining car modeled by Roco

A dining car serves food to its passengers. Its like a long, narrow restaurant on wheels. The rail line must employ extra personnel to prepare food and wait on the passengers. A more limited version of the dining car is the "lounge" car, which serves only refreshments and can provide passengers with larger, more comfortable seats rather than tables to sit at.

Observation Cars

A Canadian observation car

The observation car is almost always the last car in a passenger train in order to take advantage of the view from the rear of the train. It might have other features that provide sleeping, refreshments or food, but it almost always has larger windows around the car and a U-shaped lounge at the end where passengers can see the view where the train has just traversed. Observation cars modeled on older era railroads might have a small open-air porch off the rear of the last car.

Sleeping Cars

A model sleeping car by Rivarossi

"Sleepers" are sometimes called "Pullman cars" in the United States because of the Pullman Company that manufactured a great deal of them beginning in the mid-1800's. Some beds are designed to either roll or fold out of the way or convert into seats for daytime use, while some sleeping compartments look like small personal apartments with their own bathrooms.


6c

Three types of steam engines according to their wheel arrangement


A New York 2-6-6 Locomotive
A Central Sucre 2-4-0 Locomotive
File:92220 Evening Star (Dave Cooper).jpg
Standard Class 9F 2-10-0 Locomotive

Steam locomotives are described most commonly by how many wheels they have in each of three sections. The most notable set of wheels are the drive wheels which are usually larger and are connected by the rods which power them. The other two sets of wheels are both smaller and lie ahead of and behind the central drive wheels. Since there are at most three sets of wheels, a locomotive classification will have three numbers separated by dashes. If a locomotive has only drive wheels, the first and last numbers will still appear, but will both be zero. This classification system counts all the wheels (both sides) so when looking at the side of a locomotive, remember to multiply what you see by two.

Pictured to the right are a 2-6-6, a 2-4-0, and a 2-10-0.

An excellent diagram with all of a Steam Locomotive's parts is available at Wikipedia: Steam Locomotive Parts.


6d

Two types of grade crossing warning devices


Uncontrolled Crossings

The American Crossbuck

"Open" or "Uncontrolled" crossings utilize a sign with or without flashing lights and an audible bell warning. These are considered 'open' because there is no barricade to the passage of pedestrians or traffic. In America, the 'crossbuck' is most typically seen at graded crossings. This is the familiar white "X" shape with the words "RAILROAD" and "CROSSING" printed on them.

Controlled Crossings

Gated Crossing in Finland

The most typical method of controlling a railroad crossing is with automatic close-able gates. In addition to flashing lights and warning bell, the gates make it difficult for cars or pedestrians to cross the tracks when they are down. Gated crossings have become more elaborate in recent years because accidents can still occur if cars try to drive around the gates.


6e

Two types of railroad signals


Mechanical Semaphore Signals

Mechanical Semaphore Signal

Mechanical semaphores utilize a moveable arm (or 'blade') whose position indicates how approaching trains may proceed. A set of differently colored lenses are also mounted on the arm, each passing in front of a stationary light when the arm moves, so that the semaphore can effectively signal trains at night.

Colored Light Signals

Colored Light Signal

These signals control train movements by displaying one of several colors of lights. They can also position the lights differently in order to send additional information to the engineer.


6f

Five types of railroad-related buildings or structures


Besides track, locomotives and cars, a realistic model railroad will probably have several structures as part of the layout, such as:



7

Know the meaning of the following model railroad terms:


7a

Ballast


Rock or gravel poured between railroad ties to secure them in place and stabilize the track.


7b

Blind drivers


Driving wheels on a steam locomotive with a large number of wheel sets. These were driving wheels without the usual flanges, allowing a larger number of wheels to negotiate a turn without binding up against the rails.


7c

Block


A section of model track which is electrically insulated from its surrounding sections so that engines on it can be controlled independent of trains on other engines.


7d

Bolster


A beam that transfers the weight of a railcar to its truck.


7e

Crossing


A place where pedestrian or automobile traffic crosses the railroad.


7f

Crossover


A place where two railroad tracks cross each other.


7g

Double header


The use of two locomotives to pull an especially long and heavy train.


7h

Draft gear


Part of a railcar's coupling system which allows for some flexing in the tension between cars.


7i

Flange


The larger, flat part of a trains wheels that descend below the track's top surface on the inside edge, thus holding the car on the track as it moves.


7j

Frog


At the center of a turnout, it is the small X-shaped piece of track that enables a train's wheels to cross over the inside rail.


7k

Gap


A space between rails so that they are electrically insulated from one another. This is done so that the two rails do not short together, or so they can be on different circuits.


7l

Gauge


Sometimes used to describe the size of track and cars used on a certain model railroad, it more accurately measures the space between the rails of that railroad's track.


7m

Grade


A measurement of the steepness of the track when it is not flat or level with the ground. It is measured in degrees according to its angle from level ground.


7n

Gravity yard


A place for storing, sorting or processing train cars which uses track set at an angle with the ground in order to let gravity move cars when needed.


7o

Hot box


A wheel bearing that has become excessively hot because of friction.


7p

Insulated rail joiner


A non-conducting clip, usually made of plastic, that allows two pieces of track to be connected physically while remaining independent electronically. Used between distinct blocks of track.


7q

Journal


A bearing in which the shaft between two wheels rotates against the car's truck with the help of lubrication supplied within a journal box, often seen on a train car's trucks.


7r

Layout


An arrangement of model railroad track, structures and scenery that models real-life railroad operation in a contained area.


7s

Mainline


The route a train takes from one destination to another, independent of track used in yards, sidings or spurs.


7t

Prototype


The real-life railroad operation and equipment upon which a model railroad is based.


7u

Rail joiner


A metallic clip placed on the bottom flange at the end of a section of track allowing it to be connected both physically and electrically to the next piece of track on the line.


7v

Reverse loop


A length of track which, by use of one or more turnouts, returns a train to its originating position facing the opposite way from which it left.


7w

Siding


A section of track that runs parallel to the mainline and allows a train to stop and be passed by another train occupying the same mainline.


7x

Spur


A dead-end piece of track which accepts cars to be delivered from the mainline or prepared for shipment to another destination via the mainline.


7y

Switch


Something which routes power or trains between two or more options. When routing trains, it is best to use 'turnout' to distinguish the track mechanism from the electronic toggle switch that activates it from the layout's control panel.


7z

Machine


Refers in model railroading to the small mechanism attached to a turnout which allows it to be operated by remote-control from the layout's control panel.


7aa

Talgo truck


A model railroad truck with its own attached coupler. Although Talgo trucks permit model trains to operate on smaller radius curves, they can be more likely to derail when trains are pushed, rather than pulled.


7bb

Truck


A single, solid piece of hardware mounted to the bottom of a railroad car or locomotive to which is attached on or more sets of wheels. On train cars, trucks usually contain two sets of wheels and can swivel beneath the car when the train is navigating a turn.


7cc

Turnout


A mechanism for allowing a train to leave one set of tracks and join another. Sometimes called a 'switch.'


7dd

Two-rail


A standard of model railroading which does not employ a separate (third) rail for power. Layouts using two-rail modeling systems must employ special wiring when a wye or reverse loop exists within the layout's design.


7ee

Wye


A triangle-shaped junction of two railroad lines in which one line joins another with the option of going either direction on the second line.


7ff

Yswitch


A turnout in which both branches leave the turnout at a different angle from the original line. Most turnouts have one straight-through line and a single branch that leaves the line in a different direction.


7gg

Yard


A set of tracks which branch off of the mainline and allow train cars to be sorted, reordered or stored while they are en route to their destination.

For Further Information:

A good glossary of model railroad terms is available under Frequently Asked Questions on the World's Greatest Hobby website

A similar list of terms for prototype railroading can be found under Rail Terminology on Wikipedia.



8

Construct a portion of a model railroad layout. In your construction, do the following:
a. Assist in assembling the framework
b. Install a section of ballast
c. Install a section of track
d. Install at least one turnout, including the wiring
e. Assist in making scenery, such as trees, rocks, mountains, or grass
f. Make one model railroading building or structure
g. Assist in the wiring to supply electrical power to the tracks


You can do this on your own, or as part of a club (either a group of Pathfinders earning the honor together, or as part of a model railroading club). Because there are a lot of requirements to meet here, it would be a good idea to make a checklist so you can be sure you have met each.


9

Successfully operate a model railroad train on the layout you have assisted in building.


Once you have built (or have helped build) a model set, how can you pass up the opportunity to operate it? In reality, the set will be operated several times during construction to test each new addition. If possible, why not transport the setup to your church for Pathfinder Sabbath?



References