Ropeway People Movers for Ski Resorts
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
San Francisco, California
Compressed Area - 4.5 Miles 2.5 Miles B C D E F G H J K L M N P Q R Fort Point Blue & Gold Blue & Gold Golden Gate Bridge San Francisco Bay Red & Fleet to Vallejo, Fleet to Jack London Square Cable Car Route (toll south bound) San Francisco, California USA White Fleet Angel Island 1 San Francisco Bay Cruise Sausalito & & Oakland 1 Street Car (F-Line) Maritime Tiburon & Bay Cruise Golden Gate National Recreation Area Alcatraz Ferry Service MasonCrissy St Field National PIER Historical Park 45 43 41 39 One Way Traffic 47 431/2 Pre Marina Green s Hyde St id l io Aquatic End of One Way Traffic l Pa rkwa Marina Blvd Pier d y e Lin Park v co l w Cervantes Blvd Pier 35 Direction of The Walt l Jefferson St o n B MARINA Fort Mason The Disney Cruise Terminal Highway Ramps D B n Family Cannery Anchorage 2 l E 2 c m 33 l FISHERMANS o Museum Photo Vantage Points v ba M c Beach St Beach St (Main Post) d Palace rc n a Ghirardelli & Scenic Views i WHARF d Baker of Fine Arts L e GGNRA Square North Point St ro 31 BART Station Beach North Point St Headquarters t Shopping Area S Bay St Bay St Bay St Pier 27 a Alcatraz Departure Terminal Parks br James R. Herman m Cruise Terminal R Alha Moscone Francisco St Francisco St 3 Beaches Letterman i Lincoln Blvd c 3 h Rec Ctr THE Veterans Blvd Digital Arts a Chestnut St Points of Interest Center Ave r Chestnut St TELEGRAPH EMBARCADERO ds “Crookedest HILL o Hospitals n d Lombard St Gen. -
Feasibility Study in Doha, Qatar
Journal of Unmanned Vehicle Systems AERIAL ROPEWAY SYSTEM- FEASIBILITY STUDY IN DOHA, QATAR Journal: Journal of Unmanned Vehicle Systems Manuscript ID juvs-2020-0028.R2 Manuscript Type: Article Date Submitted by the 26-Jan-2021 Author: Complete List of Authors: Tahmasseby, Shahram; Qatar University College of Engineering, aerial ropeway system, ridership, capital cost, operation and Keyword: maintenance, revenue Is the invited manuscript for Draft consideration in a Special Not applicable (regular submission) Issue, Collection, or competition? : © The Author(s) or their Institution(s) Page 1 of 30 Journal of Unmanned Vehicle Systems AERIAL ROPEWAY SYSTEM FEASIBILITY STUDY IN DOHA, QATAR Dr. Shahram TAHMASSEBY a Qatar Transportation and Traffic Center(QTTSC), College of Engineering-Qatar University, Doha, Qatar ABSTRACT Aerial ropeway systems, also called gondolas and aerial cable cars, are amongst driverless transportation modes, which are progressively drawing the attention in promoting tourism. Aerial ropeway systems have been operated in touristic spots e.g., over lakes, rivers, and hilly lands in several countries. Passengers can enjoy a view from the above and experience a stress-free and reliable trip. Furthermore, those systems can be exploited as a public transportation in urbanized and populated regions. The objective of this article is to investigate the viability of implementing a gondola line flying over Doha Bay in Qatar as a tourist attraction from the marketing, economic, and environmental point of view. In this study, the associated costs (capital, maintenance, and operating) of implementing a monocable detachable gondola technology(MDG) are estimatedDraft using international best practices in the world. The economic analysis outcome demonstrates that the revenues generated from the fares could counterweigh the required capital investment as well as operating and maintenance costs and hence the proposed gondola could be economically attractive for investors. -
The People's Railway
Part 1: A Brief History of Muni (the People’s Railway) Presented by Robin Reitzes, Deputy City Attorney 1 Transit’s Beginning - 1851 Horse-drawn omnibuses owned by private, for- profit companies, pictured around the turn of the century. 2 1873 Inventor of the cable car – Andrew Hallidie – pictured on the side of an early car 3 Labor Trouble Around the turn of the 20th century, many smaller, privately operated transit companies consolidated. The corruption and callous labor practices of one company, the United Railroads (which became the Market St. Railway), led to a bond measure in 1909 for a municipally owned system. Carbarn interior, c. 1917. Strikebreakers were housed in these facilities during the protracted strike of 1917. 4 5 Opening Day of the People’s Railway – December 28, 1912 (Geary near Grant St.) 6 City purchases MSRY Co. September 29, 1944 — the privately owned Market Street Railway Company turned over all its assets, including more than 500 streetcars, to the San Francisco Municipal Railway, following approval of San Francisco voters to buy the private company. 7 Cable Cars Three years later (1947), Mayor Lapham tried to kill off the Powell St. cable car line. Friedel Klussman created the Citizen’s Committee to save the cable cars and put a charter amendment on the ballot to save the Powell- Mason line and the Washington- Jackson line. The California St. line became part of Muni in 1952 when the private company went out of business. 8 Cable Cars, cont’d 1964 - cable cars listed on the National Register of Historic Places 1982-84 – entire cable car system restored. -
White Paper: Urban Application of Aerial Cableway Technology
WHITE PAPER: URBAN APPLICATION OF AERIAL CABLEWAY TECHNOLOGY WSP USA | June 2018 EXECUTIVE SUMMARY WSP USA is pleased to present the following white paper that summarizes the benefits and items for consideration of aerial cableway technology; outlines the project development process; and addresses advantages, costs and challenges associated with developing aerial cableway systems in urban environments. Urban applications of aerial cableway technology have been successfully integrated into transit networks in numerous cities around the globe, including the Portland Aerial Tram (Portland, Oregon) and Roosevelt Island Tram (New York, NY). Interest in aerial cableway technology has grown considerably in the United States in recent years, and initial feasibility studies have been completed in several U.S. cities, including San Diego, CA; Washington DC; and Brooklyn, NY. WSP is evaluating aerial cableway technology as an innovative first- and last-mile connection to regional transit in urban areas. Aerial cableway technology offers multiple benefits, including: relatively lower costs compared to other transportation modes, the ability to overcome significant changes in topography and other obstacles in natural and man-made environments, the ability to bypass congested roadways and transportation corridors, the ability to move high volumes of passengers: the equivalent of one city bus every minute, a streamlined design that fits into the urban environment, the potential to integrate transit-oriented development (TOD) near stations, and the ability to provide service between residential areas and key destinations. Many of these benefits have been realized in existing systems in La Paz, Bolivia, and Medellin, Colombia. Specifically, Medellin’s Line K transports more than 40,000 passengers per day between residential areas and the city center, reducing some commute times from more than an hour to approximately 10 minutes. -
Urban Aerial Cable Cars As Mass Transit Systems Case Studies, Technical Specifications, and Business Models
Urban Aerial Public Disclosure Authorized Cable Cars as Mass Transit Systems Case studies, technical specifications, and business models Public Disclosure Authorized Public Disclosure Authorized Public Disclosure Authorized Copyright © 2020 by the International Bank for Reconstruction and Development / The World Bank, Latin America and Caribbean region 1818H Street, N.W. Washington DC 20433, U.S.A. www.worldbank.org All rights reserved This report is a product of consultant reports commissioned by the World Bank. The findings presented in this document are This work is available under the Creative based on official sources of information, interviews, data, and Commons Attribution 4.0 IGO license previous studies provided by the client and on the expertise of (CC BY 4.0 IGO). the consultant. The information contained here has been compiled from historical records, and any projections based Under the Creative Commons thereon may change as a function of inherent market risks and Attribution license, you are free to copy, uncertainties. The estimates presented in this document may distribute, transmit, and adapt this therefore diverge from actual outcomes as a consequence of work, including for commercial future events that cannot be foreseen or controlled, including, purposes, under the following but not limited to, adverse environmental, economic, political, or conditions: Attribution—Please cite the market impacts. work as follows: World Bank Group. Urban Aerial Cable Cars as Mass Transit The World Bank does not guarantee the accuracy of the data Systems. Case studies, technical included in this report and accepts no responsibility whatsoever specifications, and business models. for any consequence of their use or interpretation. -
ACRP Report 37 – Guidebook for Planning and Implementing
AIRPORT COOPERATIVE RESEARCH ACRP PROGRAM REPORT 37 Sponsored by the Federal Aviation Administration Guidebook for Planning and Implementing Automated People Mover Systems at Airports ACRP OVERSIGHT COMMITTEE* TRANSPORTATION RESEARCH BOARD 2010 EXECUTIVE COMMITTEE* CHAIR OFFICERS James Wilding CHAIR: Michael R. Morris, Director of Transportation, North Central Texas Council of Metropolitan Washington Airports Authority (re- Governments, Arlington tired) VICE CHAIR: Neil J. Pedersen, Administrator, Maryland State Highway Administration, Baltimore VICE CHAIR EXECUTIVE DIRECTOR: Robert E. Skinner, Jr., Transportation Research Board Jeff Hamiel MEMBERS Minneapolis–St. Paul Metropolitan Airports Commission J. Barry Barker, Executive Director, Transit Authority of River City, Louisville, KY Allen D. Biehler, Secretary, Pennsylvania DOT, Harrisburg MEMBERS Larry L. Brown, Sr., Executive Director, Mississippi DOT, Jackson James Crites Deborah H. Butler, Executive Vice President, Planning, and CIO, Norfolk Southern Corporation, Dallas–Fort Worth International Airport Norfolk, VA Richard de Neufville William A.V. Clark, Professor, Department of Geography, University of California, Los Angeles Massachusetts Institute of Technology Eugene A. Conti, Jr., Secretary of Transportation, North Carolina DOT, Raleigh Kevin C. Dolliole Unison Consulting Nicholas J. Garber, Henry L. Kinnier Professor, Department of Civil Engineering, and Director, John K. Duval Center for Transportation Studies, University of Virginia, Charlottesville Austin Commercial, LP Jeffrey W. Hamiel, Executive Director, Metropolitan Airports Commission, Minneapolis, MN Kitty Freidheim Paula J. Hammond, Secretary, Washington State DOT, Olympia Freidheim Consulting Steve Grossman Edward A. (Ned) Helme, President, Center for Clean Air Policy, Washington, DC Jacksonville Aviation Authority Adib K. Kanafani, Cahill Professor of Civil Engineering, University of California, Berkeley Tom Jensen Susan Martinovich, Director, Nevada DOT, Carson City National Safe Skies Alliance Debra L. -
Model Elevator Law Revision 3.Doc
MODEL ELEVATOR LAW The proper names of state offices may have to be changed. Please read this document carefully and correct to the proper name or title. ELEVATORS, ESCALATORS, PLATFORM AND STAIRWAY CHAIR LIFTS, DUMBWAITERS, MOVING WALKS, AUTOMATED PEOPLE MOVERS AND OTHER CONVEYANCES §1 Equipment Covered by this Chapter 1.1 This chapter covers the design, construction, operation, inspection, testing, maintenance, alteration, and repair of the following equipment, its associated parts, and its hoistways, (except as modified by Section 2.1). (a) Hoisting and lowering mechanisms equipped with a car or platform, which move between two or more landings. This equipment includes, but is not limited to, the following (also see ASME A17.1/CSA B44, ASME A17.7/CSA B44.7, ASME A17.3 and ASME A18.1): 1. Elevators; 2. Platform lifts and stairway chair lifts; (b) Power driven stairways and walkways for carrying persons between landings. This equipment includes, but is not limited to, the following (also see ASME A17.1/CSA B44, ASME A17.7/CSA B44.7, and ASME A17.3): 1. Escalators; 2. Moving Walks; (c) Hoisting and lowering mechanisms equipped with a car, which serves two or more landings and is restricted to the carrying of material by its limited size or limited access to the car. This equipment includes, but is not limited to, the following (also see ASME A17.1/CSA B44, ASME A17.7/CSA B44.7, and ASME A17.3): 1. Dumbwaiters; 2. Material lifts and dumbwaiters with automatic transfer devices. 1.2 This chapter covers the design, construction, operation, inspection, maintenance, alteration and repair of automatic guided transit vehicles on guideways with an exclusive right-of way. -
Transit Power Rail for Third Rail and APM Systems Conductix-Wampfler Transit Power Rail Conductix-Wampfler Transit Power Rail
www.conductix.us www.conductixtransit.com Transit Power Rail For Third Rail and APM Systems Conductix-Wampfler Transit Power Rail Conductix-Wampfler Transit Power Rail 3rd & 4th Rail • APM & PRT • Stinger Systems • Monorail 2 3 Conductix-Wampfler Transit Power Rail Conductix-Wampfler Transit Power Rail For over six decades, Conductix-Wampfler has built a worldwide reputation as a proven supplier of transit electrification products. We are your partner of choice when you need to power mass transit, people mover, monorail, and advanced light rail systems. Our mission is to design and build cost effective, energy efficient products, and to provide dedicated engineering expertise and support services that meet or exceed your expectations. We consistently meet your project needs in a variety of operating scenarios. Every component design is verified to meet the requirements of the application in our fully staffed test facility and through years of field experience. We set the standard for long term reliability and performance. Conductix-Wampfler has the engineering know-how, practical experience, and testing capabilities to be a partner in your success! You can choose from a wide variety of proven aluminum stainless conductor rail designs for mass transit systems. If you need a special rail design to meet unique and exacting criteria, Conductix-Wampfler can supply it! ISO9001:2008 Certified • Downtown People Movers • Automated Guideway Monorails • Light Rapid Transit • Amusement Park Scenic Rides • Automated People Movers • Maintenance Stinger -
Human Services Coordinated Transportation Plan for the Mat-Su Borough Area
Human Services Coordinated Transportation Plan For the Mat-Su Borough Area Phase III – 2011-2016 Final Draft January 2011 Table of Contents Introduction ..................................................................................................................... 3 Community Background .................................................................................................. 4 Coordinated Services Element ........................................................................................ 6 Coordination Working Group – Members (Table I) ................................................... 6 Inventory of Available Resources and Services (Description of Current Service / Public Transportation) .............................................................................................. 7 Description of Current Service / Other Transportation (Table II) .............................. 8 Assessment of Available Services – Public Transportation (Table III) ................... 13 Human Services Transportation Community Client Referral Form......................... 16 Population of Service Area: .................................................................................... 16 Annual Trip Destination Distribution – Current Service: ......................................... 19 Annual Trip Destination Distribution (Table V) ....................................................... 19 Vehicle Inventory .................................................................................................... 20 Needs Assessment ...................................................................................................... -
Chronology of Selected Ski Lifts Notes for 2001 Exhibit, New England Ski Museum Jeff Leich
Chronology of Selected Ski Lifts Notes for 2001 Exhibit, New England Ski Museum Jeff Leich The following notes on ski lifts are intended to aid in the development of a Ski Museum exhibit. In many cases it is unclear from the sources referenced below exactly when a particular lift was installed or first operated. It is also probable that sources with data on certain early ski lifts was not located. It is therefore not possible to compare opening dates to determine which lift was "the first" of its kind to operate; rather, this chronology is intended to indicate the general sequence of the development of early ski lifts of the stated types. 1870 Eureka Mine ore tramway used to transport miners for skiing (Allen, 109, 203 note 22--Vallejo CA Sunday Times Herald, 12-13-1870). "For example, the ore bucket of the Plumas Eureka Mine at Johnsville (CA) was converted on Sundays into the world's first ski tow. It was operated by steam". (Gould, p 136 (ref to Vallejo CA Sunday Times Herald, 12-13-1870). 1896 Riblet Tramways Company of Spokane, WA begins designing mining tramways (Gilbert, p. 2). 1907 Sightseeing four-passenger gondola built in Silver Plume, CO; torn down for scrap metal about 1914 (Gilbert, p. 2). 1907 "Sled lifts had been employed on the slopes of Bodele in the Voralberg region of Austria as early as 1907" (Gilbert, p. 4). 1908 Haulback tows used in Europe as early as 1908 (Allen, 109, note 20 on pg 203, from patent application, March 16, 1908). 1910 "A tow to haul toboggans was ready for the Truckee CA carnival in 1910 and then was used later by skiers following the formation of the Truckee Ski Club in 1913". -
Horsecars: City Transit Before the Age of Electricity by John H
Horsecars: City Transit Before the Age of Electricity by John H. White, Jr. Horsecars were the earliest form of city rail transit. One or two horses propelled light, boxy tram cars over tracks buried in the streets. Only the tops of the iron rails could be seen; the rest of the track structure was below the surface of the pavement. The rails offered a smooth, low-friction surface so that a heavy load could be propelled with a minimal power source. The cars moved slowly at rarely more than six miles per hour. They were costly to operate and rarely ventured much beyond the city limits. There was no heat in the winter nor air-conditioning in the summer. Lighting was so dim that reading was impossible after sunset. Horsecars were in all ways low-tech and old wave, yet they worked and moved millions of passengers each day. They were indispensable to urban life. The public became enthralled with riding and would not walk unless the cars stopped running. Horsecars were a fixture in American city life between about 1860 and 1900. Even the smallest city had at least one horsecar line. Grand Street, New York, at Night, 1889. From Harper’s Weekly. Basic Statistics for U.S. Street Railways in 1881 Millions on the Move 415 street railways in operation 18,000 cars The earliest cities were designed for walking. Everything clustered around 100,000 horses 150,000 tons of hay consumed each year the town square. Churches, shops, taverns, schools were all next to one another. 11,000,000 bushels of grain consumed each year Apartments and homes were a few blocks away. -
Press Kit 2017 English Version
poma.net Press Kit 2017 English Version Press contact: Alexandre Bérard - Tel.: +33 (0)4 76 12 01 33 - Mobile: +33 (0)6 08 61 36 97 - [email protected] Contents The POMA Group ............................................................................................................ 3 A word from the President ...................................................................... 4 International presence ...................................................................................... 5 Business sectors and expertise ................................................... 6 R&D/Innovation ................................................................................................................. 9 Current projects .............................................................................................................11 Some of our installations .........................................................................16 Press Kit Press Press contact: Alexandre Bérard - Tel.: +33 (0)4 76 12 01 33 Mobile: +33 (0)6 08 61 36 97 - [email protected] 2 The POMA Group POMA — based in Voreppe, near the city of Grenoble, in France — has become a major player in cable transportation. Present all over the globe for over 80 years, we have innovated and demonstrated our expertise in the snow, tourism, science, industrial and urban transportation sectors. The POMA Group boasts several production subsidiaries located in the Rhône-Alpes region of France, as well as several commercial subsidiaries in China, the USA, Switzerland,