Locomotive Dedication Ceremony
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Engineering Info
Engineering Info To Find Given Formula 1. Basic Geometry Circumference of a circle Diameter Circumference = 3.1416 x diameter Diameter of a circle Circumference Diameter = Circumference / 3.1416 2. Motion Ratio High Speed & Low Speed Ratio = RPM High RPM Low RPM Feet per Minute of Belt RPM = FPM and Pulley Diameter .262 x diameter in inches Belt Speed Feet per Minute RPM & Pulley Diameter FPM = .262 x RPM x diameter in inches Ratio Teeth of Pinion & Teeth of Gear Ratio = Teeth of Gear Teeth of Pinion Ratio Two Sprockets or Pulley Diameters Ratio = Diameter Driven Diameter Driver 3. Force - Work - Torque Force (F) Torque & Diameter F = Torque x 2 Diameter Torque (T) Force & Diameter T = ( F x Diameter) / 2 Diameter (Dia.) Torque & Force Diameter = (2 x T) / F Work Force & Distance Work = Force x Distance Chain Pull Torque & Diameter Pull = (T x 2) / Diameter 4. Power Chain Pull Horsepower & Speed (FPM) Pull = (33,000 x HP)/ Speed Horsepower Force & Speed (FPM) HP = (Force x Speed) / 33,000 Horsepower RPM & Torque (#in.) HP = (Torque x RPM) / 63025 Horsepower RPM & Torque (#ft.) HP = (Torque x RPM) / 5250 Torque HP & RPM T #in. = (63025 x HP) / RPM Torque HP & RPM T #ft. = (5250 x HP) / RPM 5. Inertia Accelerating Torque (#ft.) WK2, RMP, Time T = WK2 x RPM 308 x Time Accelerating Time (Sec.) Torque, WK2, RPM t = WK2 x RPM 308 x Torque WK2 at motor WK2 at Load, Ratio WK2 Motor = WK2 Ratio2 6. Gearing Gearset Centers Pd Gear & Pd Pinion Centers = ( PdG + PdP ) / 2 Pitch Diameter No. of Teeth & Diametral Pitch Pd = Teeth / DP Pitch Diameter No. -
History of a Forgotten Engine Alex Cannella, News Editor
POWER PLAY History of a Forgotten Engine Alex Cannella, News Editor In 2017, there’s more variety to be found un- der the hood of a car than ever. Electric, hybrid and internal combustion engines all sit next to a range of trans- mission types, creating an ever-increasingly complex evolu- tionary web of technology choices for what we put into our automobiles. But every evolutionary tree has a few dead end branches that ended up never going anywhere. One such branch has an interesting and somewhat storied history, but it’s a history that’s been largely forgotten outside of columns describing quirky engineering marvels like this one. The sleeve-valve engine was an invention that came at the turn of the 20th century and saw scattered use between its inception and World War II. But afterwards, it fell into obscurity, outpaced (By Andy Dingley (scanner) - Scan from The Autocar (Ninth edition, circa 1919) Autocar Handbook, London: Iliffe & Sons., pp. p. 38,fig. 21, Public Domain, by the poppet valves we use in engines today that, ironically, https://commons.wikimedia.org/w/index.php?curid=8771152) it was initially developed to replace. Back when the sleeve-valve engine was first developed, through the economic downturn, and by the time the econ- the poppet valves in internal combustion engines were ex- omy was looking up again, poppet valve engines had caught tremely noisy contraptions, a concern that likely sounds fa- up to the sleeve-valve and were quickly becoming just as miliar to anyone in the automotive industry today. Charles quiet and efficient. -
Lima 2-8-0 “Consolidation”, Developed for TS2013, by Smokebox
Union Pacific 4000 Class 4884-1 "Big Boy" circa 1948-49 Developed by Smokebox TM for Dovetail Games' Train Simulator © Smokebox 2021, all rights reserved Issue 1 Union Pacific 4000 Class 4884-1 "Big Boy" Steam Locomotive Page 2 Contents Introduction ....................................................................................................................................................... 7 32- and 64-bit TS ................................................................................................................................................ 7 Expert or Simple Controls mode, HUD and Automatic Fireman ....................................................................... 7 "All-in-one" .................................................................................................................................................... 7 Standard TS Automatic Fireman .................................................................................................................... 8 F4 HUD ........................................................................................................................................................... 8 High Detail (HD) and Standard Detail (SD) ........................................................................................................ 8 Recommended Settings ..................................................................................................................................... 9 Cab Layout ...................................................................................................................................................... -
ARKANSAS-BOSTON MOUNTAINS CHAPTER NATIONAL RAILWAY HISTORICAL SOCIETY Chapter No
ARKANSAS-BOSTON MOUNTAINS CHAPTER NATIONAL RAILWAY HISTORICAL SOCIETY Chapter No. 188 founded in 1987 2010 DIRECTORY OF OFFICERS President Bob Stark Vice President David McDonald Secretary Malcolm Cleaveland Treasurer Bill Longston Program Director David McDonald National Director Chuck Girard Board Director Larry Cain Editor Bill Merrifield Our website address is www.arkrailfan.com NRHS Chapter boards the A&M dinner train by reservation before 6:30 PM, December 20 The Scrambler Volume 26, No. 4 December, 2012 Monthly Newsletter of the Arkansas-Boston Mountains Chapter, National Railway Historical Society CHAPTER MINUTES Meeting of the Arkansas- Boston Mtns. Chapter of the National Railway Historical Society at the Shiloh Mu- seum, Springdale, AR. November 15, 2012. Meeting was called to order at 7:00PM by President, Bob Stark. 19 members were present . The minutes of the October meeting were approved. Chuck Girard, National Director, reported that we have 62 members, 44 primary, 18 family, 4 new, 31 have paid (Shiloh Museum and A&M RR memberships paid by the chapter). There was discussion of the way checks are held to sync with National's billing cycle. Scramblers have been mailed. Bill Longston, the Treasurer, reported that the money market account had $11,500.43. The checking account current balance is $1,555.47. Bill Merrifield, Scrambler editor, reported that the latest issue of the Scrambler was somewhat mail delayed be- cause the 11th was a federal holiday. The Archivist (also organizer of our anniversary gala and Xmas outing), All Kaeppel, said we got 62 name tags for $227, a really good price. -
Proto-Sound 3.0
2014 HO MODEL TRAINS Proto-Sound® 3.0... THE RICHEST SET OF FEATURES IN MODEL RAILROADING! Whether you operate with a conventional transformer or in com- GREAT SMOKE They’ll run in perfect synchronization with each other at any mand mode with DCC or DCS™ (M.T.H.’s Digital Command Sys- Proto-Sound engines feature fan-driven ProtoSmoke™, the most speed. You can even set your lashup so only the lead engine’s tem), the Proto-Sound 3.0 system available in every locomotive in powerful smoke system in the hobby. You can vary the intensity bell and whistle will sound, as in real life multiple-unit operation. this catalog offers more realism, more fun, and more variety than with the smoke “volume” control on the locomotive or remotely any other locomotive control system in any scale. with any DCC or DCS controller. DCC Features VIVID ENGINE SOUNDS SYNCHRONIZED CHUFF AND PUFF Proto-Sound 3.0-equipped locomotives can be controlled in com- Proto-Sound features crystal-clear digital sounds. We strive to mand mode with any DCC-compliant command control system. Like a real steam engine, M.T.H. steamers feature puffs of smoke While you won’t have access to all of the incredible features of make our sounds as authentic as possible, using the charac- and steam chuff sounds synchronized with the drive wheels. Bet- Proto-Sound 3.0, you will have full DCC command control. This teristic whistle for a particular steam engine, for example. With ter than any other model train, an M.T.H. -
Feeling Joules and Watts
FEELING JOULES AND WATTS OVERVIEW & PURPOSE Power was originally measured in horsepower – literally the number of horses it took to do a particular amount of work. James Watt developed this term in the 18th century to compare the output of steam engines to the power of draft horses. This allowed people who used horses for work on a regular basis to have an intuitive understanding of power. 1 horsepower is about 746 watts. In this lab, you’ll learn about energy, work and power – including your own capacity to do work. Energy is the ability to do work. Without energy, nothing would grow, move, or change. Work is using a force to move something over some distance. work = force x distance Energy and work are measured in joules. One joule equals the work done (or energy used) when a force of one newton moves an object one meter. One newton equals the force required to accelerate one kilogram one meter per second squared. How much energy would it take to lift a can of soda (weighing 4 newtons) up two meters? work = force x distance = 4N x 2m = 8 joules Whether you lift the can of soda quickly or slowly, you are doing 8 joules of work (using 8 joules of energy). It’s often helpful, though, to measure how quickly we are doing work (or using energy). Power is the amount of work (or energy used) in a given amount of time. http://www.rdcep.org/demo-collection page 1 work power = time Power is measured in watts. One watt equals one joule per second. -
The Steam Locomotive Table, V1
The Steam Locomotive Table, v1 If you’re reading this; you either like steam trains, or want to know more about them. Hopefully, either way, I can scratch your itch with this; a set of randomizer/dice-roll tables of my own making; as inspired by some similar tables for tanks and aircrafts. Bear with me, I know not everyone knows the things I do, and I sure know I don’t know a lot of things other train enthusiasts do; but hopefully the descriptions and examples will be enough to get anyone through this smoothly. To begin, you’ll either want a bunch of dice or any online dice-rolling/number generating site (or just pick at your own whim); and somewhere or something to keep track of the details. These tables will give details of a presumed (roughly) standard steam locomotive. No sentinels or other engines with vertical boilers; no climax, shay, etc specially driven locomotives; are considered for this listing as they can change many of the fundamental details of an engine. Go in expecting to make the likes of mainline, branchline, dockyard, etc engines; not the likes of experiments like Bulleid’s Leader or specific industry engines like the aforementioned logging shays. Some dice rolls will have uneven distribution, such as “1-4, and 5-6”. Typically this means that the less likely detail is also one that is/was significantly less common in real life, or significantly more complex to depict. For clarity sake examples will be linked, but you’re always encouraged to look up more as you would like or feel necessary. -
AP-42, Vol. I, 3.3: Gasoline and Diesel Industrial Engines
3.3 Gasoline And Diesel Industrial Engines 3.3.1 General The engine category addressed by this section covers a wide variety of industrial applications of both gasoline and diesel internal combustion (IC) engines such as aerial lifts, fork lifts, mobile refrigeration units, generators, pumps, industrial sweepers/scrubbers, material handling equipment (such as conveyors), and portable well-drilling equipment. The three primary fuels for reciprocating IC engines are gasoline, diesel fuel oil (No.2), and natural gas. Gasoline is used primarily for mobile and portable engines. Diesel fuel oil is the most versatile fuel and is used in IC engines of all sizes. The rated power of these engines covers a rather substantial range, up to 250 horsepower (hp) for gasoline engines and up to 600 hp for diesel engines. (Diesel engines greater than 600 hp are covered in Section 3.4, "Large Stationary Diesel And All Stationary Dual-fuel Engines".) Understandably, substantial differences in engine duty cycles exist. It was necessary, therefore, to make reasonable assumptions concerning usage in order to formulate some of the emission factors. 3.3.2 Process Description All reciprocating IC engines operate by the same basic process. A combustible mixture is first compressed in a small volume between the head of a piston and its surrounding cylinder. The mixture is then ignited, and the resulting high-pressure products of combustion push the piston through the cylinder. This movement is converted from linear to rotary motion by a crankshaft. The piston returns, pushing out exhaust gases, and the cycle is repeated. There are 2 methods used for stationary reciprocating IC engines: compression ignition (CI) and spark ignition (SI). -
Energy and Power Units and Conversions
Energy and Power Units and Conversions Basic Energy Units 1 Joule (J) = Newton meter × 1 calorie (cal)= 4.18 J = energy required to raise the temperature of 1 gram of water by 1◦C 1 Btu = 1055 Joules = 778 ft-lb = 252 calories = energy required to raise the temperature 1 lb of water by 1◦F 1 ft-lb = 1.356 Joules = 0.33 calories 1 physiological calorie = 1000 cal = 1 kilocal = 1 Cal 1 quad = 1015Btu 1 megaJoule (MJ) = 106 Joules = 948 Btu, 1 gigaJoule (GJ) = 109 Joules = 948; 000 Btu 1 electron-Volt (eV) = 1:6 10 19 J × − 1 therm = 100,000 Btu Basic Power Units 1 Watt (W) = 1 Joule/s = 3:41 Btu/hr 1 kiloWatt (kW) = 103 Watt = 3:41 103 Btu/hr × 1 megaWatt (MW) = 106 Watt = 3:41 106 Btu/hr × 1 gigaWatt (GW) = 109 Watt = 3:41 109 Btu/hr × 1 horse-power (hp) = 2545 Btu/hr = 746 Watts Other Energy Units 1 horsepower-hour (hp-hr) = 2:68 106 Joules = 0.746 kwh × 1 watt-hour (Wh) = 3:6 103 sec 1 Joule/sec = 3:6 103 J = 3.413 Btu × × × 1 kilowatt-hour (kWh) = 3:6 106 Joules = 3413 Btu × 1 megaton of TNT = 4:2 1015 J × Energy and Power Values solar constant = 1400W=m2 1 barrel (bbl) crude oil (42 gals) = 5:8 106 Btu = 9:12 109 J × × 1 standard cubic foot natural gas = 1000 Btu 1 gal gasoline = 1:24 105 Btu × 1 Physics 313 OSU 3 April 2001 1 ton coal 3 106Btu ≈ × 1 ton 235U (fissioned) = 70 1012 Btu × 1 million bbl oil/day = 5:8 1012 Btu/day =2:1 1015Btu/yr = 2.1 quad/yr × × 1 million bbl oil/day = 80 million tons of coal/year = 1/5 ton of uranium oxide/year One million Btu approximately equals 90 pounds of coal 125 pounds of dry wood 8 gallons of -
Internal Combustion Engines Collection of Stationary
ASME International THE COOLSPRING POWER MUSEUM COLLECTION OF STATIONARY INTERNAL COMBUSTION ENGINES MECHANICAL ENGINEERING HERITAGE COLLECTION Coolspring Power Museum Coolspring, Pennsylvania June 16, 2001 The Coolspring Power Museu nternal combustion engines revolutionized the world I around the turn of th 20th century in much the same way that steam engines did a century before. One has only to imagine a coal-fired, steam-powered, air- plane to realize how important internal combustion was to the industrialized world. While the early gas engines were more expensive than the equivalent steam engines, they did not require a boiler and were cheap- er to operate. The Coolspring Power Museum collection documents the early history of the internal- combustion revolution. Almost all of the critical components of hundreds of innovations that 1897 Charter today’s engines have their ori- are no longer used). Some of Gas Engine gins in the period represented the engines represent real engi- by the collection (as well as neering progress; others are more the product of inventive minds avoiding previous patents; but all tell a story. There are few duplications in the collection and only a couple of manufacturers are represent- ed by more than one or two examples. The Coolspring Power Museum contains the largest collection of historically signifi- cant, early internal combustion engines in the country, if not the world. With the exception of a few items in the collection that 2 were driven by the engines, m Collection such as compressors, pumps, and generators, and a few steam and hot air engines shown for comparison purposes, the collection contains only internal combustion engines. -
Premium Efficiency Motor Selection and Application Guide
ADVANCED MANUFACTURING OFFICE PREMIUM EFFICIENCY MOTOR SELECTION AND APPLICATION GUIDE A HANDBOOK FOR INDUSTRY DISCLAIMER This publication was prepared by the Washington State University Energy Program for the U.S. Department of Energy’s Office of Energy Efficiency and Renewable Energy. Neither the United States, the U.S. Department of Energy, the Copper Development Association, the Washington State University Energy Program, the National Electrical Manufacturers Association, nor any of their contractors, subcontractors, or employees makes any warranty, express or implied, or assumes any legal responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process described in this guidebook. In addition, no endorsement is implied by the use of examples, figures, or courtesy photos. PREMIUM EFFICIENCY MOTOR SELECTION AND APPLICATION GUIDE ACKNOWLEDGMENTS The Premium Efficiency Motor Selection and Application Guide and its companion publication, Continuous Energy Improvement in Motor-Driven Systems, have been developed by the U.S. Department of Energy (DOE) Office of Energy Efficiency and Renewable Energy (EERE) with support from the Copper Development Association (CDA). The authors extend thanks to the EERE Advanced Manufacturing Office (AMO) and to Rolf Butters, Scott Hutchins, and Paul Scheihing for their support and guidance. Thanks are also due to Prakash Rao of Lawrence Berkeley National Laboratory (LBNL), Rolf Butters (AMO and Vestal Tutterow of PPC for reviewing and providing publication comments. The primary authors of this publication are Gilbert A. McCoy and John G. Douglass of the Washington State University (WSU) Energy Program. Helpful reviews and comments were provided by Rob Penney of WSU; Vestal Tutterow of Project Performance Corporation, and Richard deFay, Project Manager, Sustainable Energy with CDA. -
2019 Building America Report
UNION PACIFIC 2019 Building America Report A report to communities on our social, environmental and economic sustainability progress. Our Company Economic Impact Delivering an Excellent Customer Experience Operating Safely Strengthening Our Communities Engaging Employees Protecting the Environment Appendix About the Report Union Pacific’s vision of Building America means we connect the nation’s businesses We used the Global Reporting Initiative’s global sustainability reporting standards as and communities to each other and the world by providing safe, reliable and efficient a framework to report our most material social responsibility issues. This publication supply chain solutions that support sustainable economic growth. In doing so, we strive focuses on initiatives and accomplishments from the 2019 calendar year and includes to serve our customers, enhance shareholder value, invest in our communities and 2019 data, unless otherwise noted. The impact of COVID-19 and our response provide promising careers, while operating in an ethical manner. occurred in 2020 and will be thoroughly detailed in the 2020 Building America Report. Information also is available at up.com. This report details progress in key areas supporting our environmental, social, and governance pillars: delivering an excellent customer experience, operating safely, strengthening communities, engaging employees and protecting the environment. We also summarize our 2019 financial performance. Table of Contents LETTER TO STAKEHOLDERS 3 DELIVERING AN EXCELLENT CUSTOMER EXPERIENCE