Sydney FAST 2030: A Proposal for Faster Accessible Surface Transport (FAST).

Sydney FAST 2030: A Proposal for Faster Accessible Surface Transport (FAST).
Sydney FAST 2030: A Proposal for Faster Accessible Surface Transport (FAST).

Compared to comparably-sized cities in North America, Sydney does very well on Public Transport (Transit), with a pre-Covid 26% transit commute share. Compared to cities in Europe or Asia, it does poorly, indicating significant room for improvement. 

Much of that difference has to do with wealth and space. Despite the complaints,  Sydney is rich (money doesn’t grow on trees, but it does grow in rocks), so most families have cars. Sydney is also far less concentrated than cities in Europe or Asia, so distances are more amenable to the automobile and less to public transport, and the accessibility indicators show that.

Still, it’s clear more can be done.

There have been a forest of expired plans for public transport in Sydney. There are more plans still in the works. They almost entirely focus either on Trains (and especially Metros), or on specific lines that a particular party is pushing. But a detailed comprehensive look at the layer below the trains is missing.

I believe that removing rather than recapitalising most of Sydney’s Tram network was a mistake, and the evidence of Melbourne’s popular Tram service is as close to case-control comparison you can find in this field. Sydney has higher transit mode share than Melbourne, but that is because the Trains are so much better (higher frequency), not because people like the buses better than the Trams.

Still, that does not mean the trams should all be put back. First, Sydney cannot build everything on the historic maps, at least not all at once, even Chinese Metros have been built over phases. Even more significantly, you do not want to:

  1. It may have been overbuilt. Many historic tram lines were abandoned fairly early, indicating the proponents missed their mark.
  2. We have to prioritise. Some things are more important than others, or have a higher benefit/cost ratio. 
  3. Conditions have changed. The places where historic trams were built may not warrant tram service today because the land use has changed, and of course because people’s travel preferences have changed with the widespread introduction of the automobile, the broader train network, and telecommunications and other technologies. 

I have been thinking about a “blank slate” redo of Sydney surface public transport (buses and trams). This is something the Government could do in a decade if they applied themselves.

You can see a detailed version in Google Maps here. You will need to zoom out, as it centers on the Liverpool CBD (the geographic center of the region). As always feedback is welcome.

Extending the LRT System

The Figure below shows the Existing, Under Construction, and the Sydney FAST 2030 Proposal LRT Lines. 

Sydney FAST 2030 Proposal: Proposed LRT Lines, Existing LRT and BRT,  and Under Construction LRT.
Sydney FAST 2030 Proposal: Proposed LRT Lines, Existing LRT and BRT, and Under Construction LRT.

Design Principles

  1. History: The routes on the historic maps were reasonable starting points, they knew what they were doing and often reshaped the landscape to fit trams, and the human landscape reshaped to adapt to tram corridors. Trams added access.
  2. Comport: The new lines should comport with their environment and take almost no existing buildings, but instead use existing street space as much as possible, especially former tram lines, as well as former rights-of-way where appropriate. 
  3. Significance: We want to connect places that were significant 100 years ago because they are most likely to be significant 100 years from now, lines should follow historic RoW.
  4. Directness: Routes should proceed in a fairly direct (non-circuitous) routes between the origin and destination.
  5. Parsimony: We should have a few core lines with a maximum of one split (two branches) at either end. The branches can be numbered differently (L2 vs. L3), but they share a core. Spurs with high frequency can be used if branching becomes a problem.
  6. Complementarity: All lines should complement existing higher capacity public transport (Trains and Metro), not substitute for them. (Net riders on Trains and Metro should increase after the LRT opens)
  7. Terminals: Lines should start and end at key transfer points (e.g. a Train Station) or destinations (e.g. the Beach)
  8. Gap-filling: Lines should serve areas that are today underserved, even if it violates the above (e.g. Lane Cove)
  9. Rebalance Movement and Place: Motorway construction allows us to repurpose roads that presently have a conflict between Movement and Place function (Parramatta Road, King Street/Princes Highway, Military Road)
  10. Reconcentration: The collection of new lines (these plus that already committed) should serve all areas of the built up parts of Greater Sydney, and support infill (and brownfield) development rather than speculative greenfield development. 
  11. Exclusivity: The designs assume LRT to get high ride quality on exclusive tracks with lower operating costs. These are not classic trams that shared space with roads.
  12. Frequent: Most lines are served by single (articulated) car (L1), at a high frequency rather than fewer but longer trains (L2) at low frequency. 
  13. Electrical: Electric powered, electricity delivered by wire (more efficient than battery storage)

Proposed LRT Lines

The Proposed Lines are discussed below:

  1. L1sx: (Red) L1 Southern Extension: Central to Green Square and Mascot via Elizabeth and O’Riordan, Rationale: Serves existing high density areas and potential redevelopment sites. Elizabeth and O’Riordan are most feasible for Tram services due to Street widths among parallel routes and centrality. Provides capacity relief for T8 service, as well as serving areas in between the far-spaced stations. FAST Buses would serve parallel routes.  Extends L1 to maintain balance of flows (not split CBD frequencies too much on L2/L3, single car trams appropriate for this street running service. (~5.8 km)
  2. L2/L3liz: (Dark Blue) Elizabeth Street: Relocate the L2 and L3 on the eastern side of the Sydney CBD from George Street to Elizabeth Street (Phillip Street), and then circle around to George St. Rationale: Provides service to Eastern CBD via Tram (currently missing), allows George Street to serve L2 and L3 western extensions.
  3. L2ex: (Light Blue) Coogee Extension: Extends L2 from Randwick through The Spot to Coogee Beach. Rationale: Connect to a popular beach from the CBD without a transfer
  4. L2wx: (Light Blue) Broadway – Wolli:   This line takes over the George Street LRT (which meets (and through runs with) the Elizabeth Street LRT. At Central it proceeds west along Broadway, South along City Road, down King Street in Newtown, down Princes Highway, to Wolli Creek. Rationale: Provides high capacity services to part of University of Sydney (Camperdown) currently without rail service, Newtown. It has the potential to pedestrianise King Street in Newtown (like George Street in the CBD)  by terminating City Road at Carillon Avenue and terminating Prince’s Highway at Sydney Park Road, which should be now feasible in a post-WestConnex world.
  5. L3ex: (Dark Blue) Little Bay Extension: Extends L3 along Anzac Parade from Kingsford through Maroubra to Little Bay
  6. L3wx (Dark Blue) Broadway – Five Dock: The line splits with the L2wx line and runs along Parramatta Road to Norton Street in Leichhardt, and turns West at Marion, to proceed through Haberfield to Five Dock, where it terminates at a Metro Station.
  7. L4: (Green) Oxford Street/Victoria Road:  From West to East: West Ryde, via Top of the Ryde, Gladesville, Huntley’s Point, Drummoyne (assumes A40 tunnel under Drummoyne), Rozelle, sharing the existing L1 line (Alt: take two lanes from the Anzac Bridge), Museum, Darlinghurst, Paddington, Woollahra, Bondi Junction  to Bondi Beach
  8. L5: (Purple) North-South: Wynyard to Northbridge via Harbour Bridge, North Sydney, Cammeray to Northbridge. This project restores Tram service to Wynyard Station and the Harbour Bridge, providing local services to North Sydney, and enabling interchanges with regional Trains and Metro services.
  9. L6: (Purple) Wynyard to Lane Cove via Pacific Highway. Sharing track with the L5, it branches to provide local services on the dense Pacific Highway corridor and connecting with the historic regional center of Lane Cove, which is in an area underserved by rail.
  10. P1nx: (Orange) Castle Hill Extension: (Female Factory through Baulkham Hills to Castle Hill)
  11. P1ex: (Orange) Camellia Service (Rosehill – Camellia – Silverwater – Newington – Olympic Park)
  12. P2nx: (Orange) Epping Extension (Carlingford to Epping). Extends Parramatta LRT Phase 2

Creating a Rapid Bus Network

Sydney FAST 2030  Proposal: Rapid Bus Lines. 
Sydney FAST 2030 Proposal: Rapid Bus Lines. 

Buses have not received the attention they deserve. We could do much better with buses than we actually do, but elite projection (elites can imagine themselves riding trains but not buses) is hard to overcome, so buses are regarded as inferior to trains for reasons that mostly have to do with how we use buses in the system, rather than the technology itself.  [Recognising that the ride quality of buses on streets is not as high as trains on exclusive rights-of-way]. This vision for Rapid Buses is not T-Ways (on exclusive rights-of-way) everywhere, but more akin to the Arterial Bus Rapid Transit services that Metro Transit in Minnesota provides. (You can see a nice video about the service). In short, buses are the workhorse of the public transport system, and need more attention to make them as excellent as possible.

Principles

  • Gridded: We should design a Grid-like network, so that people can get to their destination with at most one-transfer. I don’t think this actually holds because of an inconvenient river. All of the proposed V-Lines stop south of the Parramatta River. Rail service north of the River is good, the B-Line already exists (which can be thought of as V-01), and the proposed LRT extension above are fairly comprehensive, so the areas north of Sydney Harbour and the Parramatta River get more H-Lines and no V-Lines. The existing Railroad rights-of-way present another barrier, as there are few surface street crossings of the lines, those are taken advantage of where possible, but wind up distorting the network from an idealised grid. (See Bambul’s post for a similar idea with a slightly different implementation or my earlier version focusing on Inner Sydney.)
  • Directness: We should minimise bus circuity for these routes (there can be other minor routes after these are fixed, I won’t bother with that here), so that travelers are not riding all over creation as the bus operator seeks a few extra passengers or to meet some arbitrary standard about distance to the nearest bus stop. 
  • Complementarity: Routes should complement not compete with existing Train, Metro, LRT, BRT routes. So even when there are bridges over the Parramatta River, they are already served by existing rail lines, so the principle of complementarity reduces the ability to provided continuous V-Line services from the south to the north, relying instead on transfers. This proposal assumes everything under construction and budgeted will be built (major Motorways, Metros, etc.)
  • Feasibility: The cost should relatively minimal (achieving High Return on Investment), so essentially no new roads, bridges, and so on, are built for the bus routes, and a minimum number for the proposed  LRT links.

The services are gridded, so they are divided into H-Lines and V-Lines. Specific lines are itemised below.

H-Lines

Shown in pale blue, East-West or Horizontal (“H”) Lines (always even numbers, major lines end in 0, lowest numbers in the North, highest in the South)

  • H10: Parramatta – Eastwood – Macquarie Park
  • H20: Chatswood – Cremorne – Mosman – Manley
  • H30: Crows Nest – Cremorne – Mosman – Taronga
  • H40: Guildford – Lidcombe – Olympic Park – North Strathfield – Concord – Canada Bay – Drummoyne – Birkenhead
  • H50: Bonnyrigg – Cabramatta- Yagoona – Chullora – South Strathfield – Enwood – Burwood Heights – Croydon – Haberfield
  • H60: Bankstown – Belfield – Ashfield – Leichhardt – Annandale – Glebe – Usyd – Redfern – Surry Hills – Moore Park – Waverly – Bronte
  • H64: Stanmore – University of Sydney – Redfern – North Waterloo
  • H68: St Peters – Randwick – Clovelly
  • H70: Liverpool – Canterbury – Dulwich Hill – Petersham – Enmore – Newtown – Alexandria – Green Square – Kensington (via Old Canterbury Road)
  • H80: Bardwell Park – Earlwood – Marrickville – Enmore – Newtown – Erskineville – Alexandria – Green Square – Kensington – Coogee
  • H90: Sydenham – Mascot – Rosebery – Eastlakes – Kingsford – South Coogee – Maroubra
  • H100: Revesby – Padstow Heights – Beverly Hills – Bexley – Arnclife – Kyeemagh – Botany – Pagewood – Eastgardens – Maroubra – Maroubra Beach

V-Lines

Shown in light purple, North-South or Vertical (“V”) Lines (always odd numbers, major lines end in 5, lowest numbers in the East, highest in the West)

  • V03: Bronte – Vaucluse – Watson’s Bay
  • V05: Rose Bay – Double Bay – Eastcliffe – Randwick – Maroubra
  • V11: Botany – Eastlakes – Rosebery – Zetland
  • V13: Potts Point – Zetland – Green Square – Mascot – Botany – Malabar
  • V15: Botany Road – Circular Quay – The Rocks – Barangaroo – Redfern – Green Square – Botany – Pagewood – Eastgardens – Maroubra
  • V21: St Peters – Waterloo Metro – Redfern
  • V23: White Bay – Annandale – Stanmore
  • V25: Balmain – Leichhardt – Petersham – Marrickville – Sydenham – Wolli Creek – Miranda
  • V29: Dulwich Hill LRT – Earlwood – Bardwell Park
  • V31: Summer Hill – Hurlstone Park
  • V35: Abbotsford – Five Dock – Croydon – Canterbury – Bardwell Park – Banksia
  • V41: Bexley – Rockdale – Brighton-Le-Sands – Kogorah
  • V45: Sans Souci – Carlton – Bexley North – Cabarita
  • V47: Mortlake Spur 
  • V55: Ramsgate – Allawah – Bexley – Kingsgrove – Belmore – Strathfield
  • V65: Carrs Park – Hurstville – Beverly Hills – Wiley Park – Flemington
  • V67: Penshurst – Lakemba – Greenacre – Chollura – Lidcombe – Olympic Park
  • V71: Mortdale – Riverwood – Punchbowl
  • V73: Padstow – Bankstown – Yagoona – Regent’s Park – Auburn
  • V75: Rose Hill – Sefton – Revesby
  • V85: Parramatta – Merrylands – Chester Hill to Panania
  • V95: East Hills – Villawood – Fairfield – Westmead

Physical geography is always a factor. Because of the width of Sydney compared to the height, there are more V-Lines than H-Lines. Also, based on the principle of non-redundancy, more vertical bus routes are provided, as there are more existing and under construction horizontal train lines.

Note this service stops in Liverpool, as the areas west are not developed yet. We have ideas about that, and I am currently doing work in the area, so will abstain.

If any of these H- or V-Lines are successful, they can of course be upgraded, and as the physical rail network changes, one expects these lines will evolve as well, taking advantage of the flexibility offered by buses. I have not conducted a formal accessibility analysis of this FAST network proposal, but if you are interested in funding something, find me.

This vision is essential if public and active transport are to be the preferred choice for most Sydneysiders, which is critical for achieving the environmental goals of eliminating CO2 emissions.

Maximizing Access in Transit Network Design

Recently published:

  • Rayaprolu, H., Wu, H., Lahoorpoor, B., and Levinson, D. (2022) Maximizing Access in Transit Network Design. Journal of Public Transportation. 24 [doi]

This study adopts an Access-Oriented Design (AOD) framework for optimizing transit network design. We present and demonstrate a method to evaluate the best combination of local and express alternative transit system designs through the novel concept of ‘iso-access lines’. Two bus network system designs were explored for a greenfield development in suburban Sydney: through-routed transit lines (T-ways) with higher speeds and more direct service, but longer access and egress times, and local routes that provide additional spatial coverage. We developed scenarios with T-ways only, local routes only, and both, and computed transit access to jobs as a cumulative-opportunities measure for each scenario. Local routes offer greater overall access, while T-ways provide greater access-per-unit-cost. The optimal combination of the two was established by generating ‘iso-access’ lines and determining access-maximizing combinations for a given cost by applying production-theory principles. For 15-min access, the optimal combinations had T-way service frequency equivalent to 0.48 times that of local routes. This ratio increased to 1.45, 2.05 and 2.63 for 30-min, 45- min and 60-min access respectively. In practice, the method can be applied to determine optimal transit combinations for any given budget and desired access level.

Fig. 4. Schematic representation of transit connections designed for the development area. T-ways connect superblock centers with rail stations on either end. Local routes originate at rail stations, loop around superblocks and terminate at the origin stations.

Network Econometrics and the Evolution of Transport Systems

Recently Published

Abstract

This thesis systematically develops a network correlation matrix that explicitly distinguishes competitive and complementary link pairs in transportation networks. Embedding the matrix in network econometric analysis, this thesis consolidates that incorporating representative spatial information with a network perspective is capable of improving the performance of traffic forecasting models. The method is validated in the context of a real-world transport system rather than within simulated settings adopted by previous research. An Autoregressive-Distributed Lag (ARDL) model is specified, and reveals that the combination of correlation strength and magnitude of lagged flow change on correlated links is an significant predictor of future traffic flow. This thesis innovatively extends network econometric methods, previously exclusively used for traffic flow forecasting, to the domain of network structure prediction by specifying a logit model. It finds that complementary and competitive links play distinct roles in shaping the network structure. If positively correlated, a link is more likely to undergo the same structural change influential links underwent previously where the influence is measured by a combination of correlation strength and link importance, reflected by historical flow level. Additionally, this thesis establishes a digitized database of the Sydney tramway system, providing a complete set of data for more research.

Trams running through Railway Square, 1920s

How Transit Scaling Shapes Cities

Recently published:

Transit accessibility to jobs (the ease of reaching work opportunities with public transport) affects both residential location and commute mode choice, resulting in gradations of residential land use intensity and transit (public transport) patronage. We propose a scaling model explaining much of the variation in transit use (transit commuters per km2) and residential land use intensity with transit accessibility. We find locations with high transit accessibility consistently have more riders and higher residential density; transit systems that provide greater accessibility and with a larger base for patronage have proportionally more ridership increase per unit of accessibility. All 48 metropolitan statistical areas (MSAs) in our sample have a scaling factor less than 1, so a 1% increase in access to jobs produces less than 1% increase in transit riders; the largest cities have higher scaling factors than smaller cities, indicating returns to scale. The models, derived from a new database of transit accessibility measured for every minute of the peak period over 11 million US census-blocks, and estimated for 48 major cities (MSAs) across the United States, find that jobs within 45 minutes most affect transit rider density. The findings support that transit investment should focus on mature, well-developed regions.

Scaling Coefficients for Transit Commuter and Working Population Density (dot sizes corresponds to residential density); Between-cities scaling (pooling 48 cities) shown with the solid red dot; All cities above the red diagonal line
Scaling Coefficients for Transit Commuter and Working Population Density (dot sizes corresponds to residential density); Between-cities scaling (pooling 48 cities) shown with the solid red dot; All cities above the red diagonal line

On Trackless Trams

Zhuzhou, Hunan, China has deployed a segment of `trackless trams’ (map – it runs on the north-south route in the center of the map in this Olympics district). The technology, explained in this video, is an articulated, rubber-tired on road, electric vehicle that carries passengers on a marked right-of-way adjacent to traffic. The interior has a layout typical of trams or LRT vehicles, and it has tramlike doors. The stops are at stations with protective gates aligned with platform doors like modern LRT and Metro systems so people are less likely to be on the track.  The vehicle, though billed as “autonomous” is in fact merely  “driver assist”, as the video plainly shows a driver and steering wheel and explains. The markings on the road are used to help the guidance system (and the driver) stay centered in the lane.

 

There is a lot of hype about such systems. It is being widely promoted by Prof Peter Newman out of Perth (Curtin University), who has long been influential in transport policy in Australia, and has had government positions. (You may remember him from Sustainability and Cities).

In Australia, `trackless trams’ keep getting suggested for various corridors, two in particular are”

  • From the City of Liverpool (Western Suburb) to the now under construction Western Sydney airport Links: (1) (2) (3) The Liverpool – airport corridor has been mooted for public transport, and BRT seems perfectly logical there, trackless tram loses the ability to feed the line from side streets.
  • Parramatta Road from the City of Sydney to Parramatta. This is a suburban strip/car sewer for much of its length, and could be so much more. With the construction of the tunneled motorway project (WestConnex), there have been promises made to rejuvenate the road and create an exclusive transit lane for its length (it exists in places but not continuously), but commitments are fluid. The route once had trams, and today has many many buses. Links: (1) (2) (3)

 

One broader issue of course is that it is a bit of vapourware. There is a Chinese line as noted above (so it is decades ahead of Hyperloop), but essentially no one here has ridden on it, and many people/professionals are naturally skeptical of performance and reliability and real costs.

Politicians however are especially vulnerable to the new and shiny (the TV series Utopia/Dreamland is a documentary), anything that gets them above the fold in the newspaper or on the local news at 6, so it attracts more attention than more mundane ideas like bus electrification and exclusive bus lanes and transit signal pre-emption, in short Rapid Bus or Bus Rapid Transit.

And there is a strong anti-labour thread in these discussions, so any opportunity to automate and get rid of drivers and of the risk of labor work actions is seen as attractive. That said, the technology isn’t actually automated yet. Not to say it won’t be in the indefinite future, but not for the initial deployment.

Trams in Sydney especially are seen as expensive, and the two of the most recent tram projects (Newcastle LRT, and the City and Southeast LRT in Sydney) have had huge cost blowouts (and were poorly scoped), so naturally there is searching for other modes.

Perhaps electric bus rapid transit needs a rebranding, but no one should be confused about what a `trackless tram’ actually is. It is an advanced, electric bus in an exclusive bus lane operating like gold standard bus rapid transit. There is nothing wrong with advanced buses. There is nothing wrong with bus lanes. There is nothing wrong with bus rapid transit. Cities should deploy more of these things, and if politicians need to use the silly phrase “trackless tram” or anything else to get this popularly accepted by a political class, media, and public with the attention of a gnat, there are worse indignities the profession suffers.

Sydney Metro Opening Day: A Review

Sydney opened the long-awaited first Northwest section of its “Metro” line. Sydney has long had grade-separated, high-frequency train service (Sydney Trains) through its core, the “Metro” is different in that it is:

  • single-deck rather than double deck, with more doors, for faster boarding times
  • standing rather than sitting oriented (on a crowded train more standees than seated passengers, compared with Trains)
  • automated rather than manually driven
  • with platform-based as well as train-based doors, to improve safety.

In other words, while Sydney Trains is what Americans would think of as commuter rail, but on steroids, Sydney Metro  is like late 20th century (early 21st century) trains built in much of the developed world, most similar to systems like BART, DC Metro, or MARTA.

To get to the Metro, we took Sydney Trains from Redfern to Epping. At Epping, one descends and descends to reach the Metro platform. The stations and controls from Epping to Chatswood were remodeled from the early 21st century trains line (when the corridor was expected to be a Trains rather than a Metro. We took the line west to Tallawong (a parking lot and near the train stabling facility), and alighted and boarded the eastbound train which we took to Rouse Hill, where we alighted for lunch, making a series of culinary choice errors at the Rouse Hill food court, though I am not clear one could do otherwise.

The good news is that demand was high (75,000 in five hours, the Sydney Morning Herald gushes), apparently exceeding expectations. People are curious about the line, want to see it succeed, want to be able to use public transport to reach the city. Even before the problems that I will soon describe emerged, it was Standing Room Only on the westbound run.

The trains had indicators showing where they were on the line. There was an emergency stop button located near the doors which look like a User Interface disaster waiting to happen (that is, there will be an enormous number of false positives as people will push the button accidentally or in the believe it is required to open the door, as in an elevator).

The braking sound of the train is very much like DC Metro, though deceleration did not induce the same kind of nausea that DC Metro does. There is nevertheless a significant uncomfortable jerk as the Metro train comes to a stop at many of the stops.

After thoroughly exploring the Rouse Hill Town Centre, we queued up to board the Metro back, to go to Chatswood, and then transfer to a Train back to Redfern.

The bad news is the service operator (MTR) was not quite ready to provide a reliable service. We may eventually discover whether someone(s) specifically screwed up, or whether failure is indeed an orphan. Apparently (I did not witness this, but people report) there were issues with platform and train doors aligning, and issues with doors closing properly and with trains overshooting the platform. This held up trains Chatswood and Macquarie Park, and thus eventually all the trains in the line, as shockwave of stoppage cascades backwards all the way to Tallawong.

It took 1 hour and 40 minutes from Rouse Hill to Chatswood. The first 40 minutes were queueing at Rouse Hill, so as not to overload the platform for the few trains making it through, it was no 90 second, or 4 minute, or 5 minute headway as variously promised by various people at various times. The remaining hour was on train from Rouse Hill to Chatswood. The scheduled time is 35 minutes station-to-station.

Epping Metro, as the train to Tallawong approaches
Epping Metro, as the train to Tallawong approaches

No up escalators at the spacious Rouse Hill Metro Station
No up escalators at the spacious Rouse Hill Metro Station

 

 

 

 

 

 

 

 

 

 

 

This opening debacle will, as first impressions are important, likely create a perception that the service is unreliable. If this is coupled with a few well-publicised rush hour breakdowns, it will take years to fully regain a reputation for reliability, and people will clamor for restoration of more express bus services. Obviously some of this technology problem is teething issues, and will be eventually sorted out, but surely this should have been worked out in testing … unless it was rushed for some reason.

The queue management was professional if indicative of problems. The communications with customers about the problems was vague.

Now, to be fair, opening day often brings about unexpected outcomes.

The opening of the Green Line light rail between Minneapolis and St. Paul was marked by an automobile wrongly driving on, and getting stuck on, tracks; and the train hit multiple pedestrians in its first year.

The Opening of the Liverpool and Manchester railway killed a prominent Member of Parliament. So the delays on the Sydney Metro are perhaps small potatoes in the scheme of things. One just would have hoped for a better performance.


* I am not commenting on the strategic decisions about the location of the line, etc. here.

 

The Magic of Streetcars, The Logic of Buses | A Political Economy of Access

We are pleased to make available Chapter 11: The Magic of Streetcars, The Logic of Buses of A Political Economy of Access. It opens:

A Political Economy of Access: Infrastructure, Networks, Cities, and Institutions by David M. Levinson and David A. King
A Political Economy of Access: Infrastructure, Networks, Cities, and Institutions by David M. Levinson and David A. King

Once upon a time (1888 to be precise), the United States and the world launched a huge building boom for urban streetcars. Companies like Twin City Rapid Transit laid miles of track in fast-growing cities, extending well past the built areas to serve greenfield sites for emerging suburbs waiting to be platted and built. They did this because the streetcar promoters benefited directly from the land sales. The availability of a new, fast transit system connecting to downtown made houses much more valuable. The fares from the new passengers covered the operating costs of the system.

How to increase transit ridership by up to 35% with one weird trick.*

This is a reprint from an article I wrote for The Conversation about our recent report “Catchment if you can: The effect of station entrance and exit locations on accessibility.”

The 30-Minute City by David M. Levinson
The 30-Minute City by David M. Levinson 

Train riders have to get to stations somehow. This is often referred to as the “first mile” or “last mile” problem. There are many technical solutions to help travellers get from home to the station and back, ranging from cars to electronic scooters, but most people use a much older technology, their feet, to get from A to B. What is seldom considered is access to the train platform itself.

Stations are not points but places. They occupy a large area. A person walking at average speed takes about two minutes to walk from one end of a full-length eight-car train to the other.

Often platforms have a single access point on one side of the station, which makes it more difficult for people on the other side of the station to get to the platform. Passengers may need to almost circumnavigate the station to get to the platform. At an average walking speed, the extra distance they must backtrack adds up to six minutes per trip each way, our research has found.

Imagine being so unlucky to have an extra 12 minutes of travel time every day if you take the train. You might be tempted to drive instead.

Catchment.jpg
Illustration of worst-case scenario, traveler lives west of the station with an East Platform and works East of a station with a West Platform, adding 6 minutes of travel each way, 12 minutes per day.

The table below shows the extra travel time in minutes depending on platform locations and access points for a traveller’s origin and destination. The average time for such a one-sided configuration of train stations is 3.25 minutes each way.

Work

East

West

Live

Platform

East

West

East

West

East

East

0

4

4

2

West

4

4

6

2

West

East

2

6

4

4

West

2

4

4

0

Table 1: Additional Travel Time Depending on Origin and Destination Residence and Workplace Location vis-a-vis Platform Location.

While this example is hypothetical, it is drawn from experience in Sydney, where 44 of 178 train stations have only a single side entrance.

So what impact will a second entrance have?

We examined those stations and access to their platforms: how many people lived within 5, 10 and 15 minutes of the station platform, considering actual entrance location, and how many jobs were within 5, 10 and 15 minutes of the platform. Using existing ridership data from Opal cards, we estimated a model that related the passenger entry and exit flows at each station to that station’s accessibility.

Accessibility at train stations across Sydney. Author provided

We sketched a second entrance at those 44 stations and measured accessibility again. It’s now higher, as having two entrances instead of one means more people can reach the platform in the same time. We then estimated the increase in ridership from the model due to the improved accessibility, assuming no change in population or employment.

Over all 44 stations, total morning peak period entries increased by 5%. But some stations benefit a lot, and others not at all, so prioritisation of investments matters.

It will be no surprise to locals that Erskineville station comes out on top with a nearly 35% increase. While many of the new apartment-dwelling residents west of the station make the extra hike every day, even more would catch the train if there were a convenient entrance.

Other top 10 stations include: Bankstown, Newtown, Villawood, Redfern, Burwood, Sydneham, Caringbah, Meadowbank and Penshurst. Planning is already under way to improve Redfern station.

While this result considers existing development, adding a second entrance can make new transit-oriented development that much more valuable. This is because it will likely increase activity on the previously less accessible side of the station, as the example of Erskineville shows below.

Author provided

 

Other considerations include accessibility for people who cannot use staircases, as many of the stations are older and will require lifts. The prospects of park-and-ride lots, the costs of construction, the presence of nearby stations, and site feasibility also play into final decisions.

Our formal findings and details methods are summarized in this Executive Summary, and written up in this report: Catchment if you can: The effect of station entrance and exit locations on accessibility

The full Atlas is here: Atlas

 

A brief interview was ABC NSW News, Friday May 3, 2019, starting at 13:24 into the broadcast.


*Results vary by station.

An argument in favour of streetcars

I am a noted streetcar skeptic. I have written blog posts about their issues. As an objective analyst, I will however admit an advantage streetcars or trams have over buses.

This is not the ‘permanence’ justification that is often heard and easily disproved (i.e. where are they now if they were so permanent?). But it is related, once laid down, tracks are harder to move than buses, and tracks are more expensive, so it is harder to make routes circuitous. Many bus routes look like they were designed by drunk transit planners. One local bus the 370, which runs near my office and my home is so circuitous it is faster to walk even ignoring schedule delay. (It is not quite faster to walk end-to-end though, walking time is 2:30 vs. 1:14 on the bus, so the effective bus speed, assuming schedule compliance, is about 9.6 km/h vs. 4.8 km/h walking.) I have written about this before in Minneapolis, (and nearby Rosedale) and circuity is hardly an unknown problem.

370 Bus Route on Google Maps
370 Bus Route on Google Maps

Now there are undoubtedly reasons for every indirect deviation that diverts buses from the straight and narrow. However, every circuitous zig also loses passengers, and bus routes in the US are much more circuitous than travel by road. Serve this building, serve that one, cover this street, reduce pedestrian walking time.

In contrast, trams in practice are much more straight-laced, paragons of transit routing virtue. The historic Sydney Tram Map, as this map in wikipedia shows, gives a sense of routes that were pretty much as direct as possible.

Eastern_trams-1.png

Now it can be argued this particular bus provides and east-west service that no tram did, which is true in part. But that doesn’t mean trams could not. It also could be argued that almost no one rides the 370 end-to-end. Though I have not checked the Opal data, this is probably true as well. But a well-structured suburb-to-suburb transit network (my fantasy map is here, Jarrett Walker has done this as well) could avoid this. To be fair as well, the Sydney frequent network is not nearly as circuitous as the 370 bus, which has a roughly 20 minute headway

A Political Economy of Access: Infrastructure, Networks, Cities, and Institutions by David M. Levinson and David A. King
A Political Economy of Access: Infrastructure, Networks, Cities, and Institutions by David M. Levinson and David A. King