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Trams are Great! So why are the Streetcars SO BAD!? thumbnail

Trams are Great! So why are the Streetcars SO BAD!?

Not Just Bikes·
7 min read

Based on Not Just Bikes's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.

TL;DR

Toronto’s streetcars are portrayed as chronically underfunded and treated like inherited infrastructure rather than a modern transit network.

Briefing

Toronto’s streetcars are slow, unreliable, and poorly integrated with street design—largely because cars are treated as the priority and transit is forced to “fit around” them. The result is a system that routinely bunches, misses schedules, and traps riders behind red lights and traffic delays, even on routes that have dedicated lanes. The frustration isn’t just about today’s ride; it’s about what could be achieved with modern tram practices like signal priority, dedicated right-of-way, and true level boarding.

Amsterdam is held up as the contrast. There, trams often run in separated lanes and traffic signals automatically adjust to keep them moving through intersections. Toronto, by comparison, has a streetcar network that carries roughly 250,000 weekday riders (pre-pandemic higher), yet has seen only minor improvements for decades and remains chronically underfunded. The core complaint is that Toronto operates streetcars like a historic obligation rather than a functional transit system.

The most visible operational failures come from traffic interference and signal timing. Streetcars commonly crawl in mixed traffic—sometimes so slowly that walking is faster. On-street parking forces frequent delays as vehicles need to park, and service bunching creates long gaps followed by multiple cars arriving together. “Short turning” to recover from gaps can leave riders stranded short of their destination. Even when streetcars do travel in dedicated lanes, they often lack transit signal priority, meaning they still stop at nearly every red light.

Stop spacing and intersection design compound the problem. Toronto stop spacing is described as roughly 200–300 meters, compared with 300–400 meters in many European cities, so riders experience frequent stops. The near-side placement of stops at intersections can lead to a pattern of stopping to board, moving a few meters, then stopping again for a red light. Turning movements also create delays: streetcars are not given dedicated turning signal logic, and left-turn phases can hold transit for the convenience of drivers.

The accessibility story is equally damning. Toronto’s fleet uses Bombardier Flexity low-floor streetcars, but platforms are often not built for level boarding. Wheelchair access depends on a button that triggers the driver to extend a ramp—yet only one door carries the ramp, forcing precise timing. The transcript argues that Toronto removed streetcar islands in 2017 under the banner of “accessibility and safety,” claiming the islands were too small for wheelchairs; the workaround became curb boarding, which the narrator portrays as less safe and less accessible. A comparison is drawn to Amsterdam, where street redesign can remove car lanes and replace them with bicycle space to enable better tram stop geometry.

A key case study is the King Street Pilot Project. City data showed streetcar speeds at peak times were near walking pace and reliability was poor because cars occupied most of the space while carrying a small fraction of people. The pilot proposed redesigning blocks to reduce through car traffic, expand sidewalks and cycling, and improve transit priority. Suburban councillors and right-wing media pressure allegedly watered down the plan—most notably through a taxi exemption that limited physical barriers and kept the street usable for cars at night. Despite that, the pilot is described as successful: faster, more reliable service, higher rider satisfaction, ridership rising to about 84,000 passengers per day, and a large increase in cycling.

The broader thesis ties these failures to political incentives and outdated technology. The TTC is criticized for using antiquated single-point switches that require operators to stop, visually confirm switch positions, and crawl through at very low speeds due to derailment risk. The transcript also faults older overhead power practices—trolley poles instead of pantographs—linking them to disconnections, power limits, reduced air-conditioning use, and earlier vehicle retirements during wet weather.

The proposed fix is straightforward: dedicated lanes where possible (or streets that aren’t through routes for cars), consistent signal priority for streetcars, and level boarding as a network-wide standard. Without those changes, the transcript warns, Toronto’s streetcars remain vulnerable to political attacks and could eventually be replaced—despite being, in the narrator’s view, a transit “goldmine” that other cities have learned to unlock.

Cornell Notes

Toronto’s streetcars underperform because they’re repeatedly forced to yield to car traffic and outdated operating practices. Even where dedicated lanes exist, transit signal priority is often missing, producing frequent red-light delays, bunching, and unreliable service. Accessibility is also compromised: low-floor Bombardier Flexity vehicles still require ramps and careful door placement because platforms are frequently not built for level boarding, and curb boarding replaced island stops in 2017. The King Street Pilot Project is presented as proof that faster, more reliable streetcar service is achievable at relatively low cost when through car traffic is restricted and transit priority is improved. The transcript concludes that Toronto’s “cars-first” mentality—plus antiquated switches and overhead power choices—keeps streetcars from becoming a true alternative to driving.

Why does Toronto’s streetcar service often feel slower than walking, even though it’s rail transit?

The transcript attributes it to chronic interference from cars and parking, plus signal timing that doesn’t prioritize transit. Streetcars frequently move at a crawl in mixed traffic; on-street parking forces repeated delays when vehicles need to park. Service bunching creates long gaps followed by multiple cars arriving together, and “short turning” can leave riders waiting for the next vehicle if the first one doesn’t go all the way. Even when streetcars have dedicated lanes, they can still wait at red lights because transit signal priority isn’t consistently implemented.

How do stop spacing and intersection design make delays feel constant?

Toronto stop spacing is described as about 200–300 meters, versus 300–400 meters in many European tram systems. That means riders encounter stops frequently. Stops are often placed near-side of intersections, so a streetcar may stop to board, move only a few meters, then stop again for a red light. The transcript also highlights turning phases—especially left turns—where streetcars must wait for drivers to complete maneuvers, even when the streetcar carries many passengers.

What accessibility problems persist despite low-floor streetcars in Toronto?

Low-floor Bombardier Flexity streetcars are said to be designed for level boarding, but Toronto’s platforms are often not at the correct height. Wheelchair access requires a passenger to press a button so the driver can exit, go to the door, and extend a ramp. Because only one door has the ramp, riders must be ready at the correct location before arrival. The transcript also claims curb boarding replaced island platforms in 2017 under “accessibility and safety,” arguing that the islands were too small for wheelchairs and that expanding them would have reduced space for cars.

What did the King Street Pilot Project change, and why is it treated as evidence that streetcars can work well?

The pilot aimed to speed up streetcars by redesigning King Street blocks to reduce through car traffic and improve transit priority. City staff presented options ranging from full dedicated lanes to block-by-block restrictions on car access, with space reallocated to wider sidewalks, bike lanes, and even parkettes where cars weren’t needed. Suburban opposition allegedly watered down the plan through a taxi exemption at night, limiting barriers. Still, the transcript reports measurable gains: faster and more reliable streetcar service, increased rider satisfaction, ridership rising to about 84,000 passengers per day, and cycling increasing by over 400 percent.

What outdated technologies are blamed for slowing Toronto streetcars at intersections?

The transcript focuses on single-point switches (turnouts/points) rather than dual-point switches used widely elsewhere. Single-point switches are described as having a higher derailment risk, requiring operators to stop, visually confirm switch position, and proceed at very low speeds—sometimes as low as 10 km/h—through the intersection. It also claims electrified switching systems were hard to maintain because original equipment was sold and resold, technical drawings were lost in a fire, and the TTC had to cobble together solutions.

How does overhead power equipment factor into reliability and rider experience?

Toronto is criticized for using trolley poles instead of pantographs. The transcript links trolley poles to frequent disconnections through intersections, limited power delivery, and reduced reliability when ice forms. It also claims trolley poles prevented using air conditioning on the new streetcars due to power demands, and that wet weather accelerated wear on the carbon shoe, forcing earlier vehicle removal from service—reducing capacity on rainy days when ridership demand would be higher.

Review Questions

  1. Which operational choices in Toronto most directly create bunching and long gaps in streetcar service?
  2. How does the transcript connect platform design to wheelchair boarding requirements on Toronto streetcars?
  3. What measurable outcomes from the King Street Pilot Project are used to argue that transit improvements can be both effective and relatively low-cost?

Key Points

  1. 1

    Toronto’s streetcars are portrayed as chronically underfunded and treated like inherited infrastructure rather than a modern transit network.

  2. 2

    Mixed traffic, on-street parking, and lack of consistent transit signal priority cause frequent red-light delays, bunching, and unreliable service.

  3. 3

    Stop spacing and near-side intersection stop placement increase the number of times streetcars must stop and wait during a trip.

  4. 4

    Low-floor Bombardier Flexity vehicles still face accessibility barriers in Toronto because many platforms aren’t built for level boarding, forcing ramp deployment via a button and a specific door.

  5. 5

    The King Street Pilot Project is presented as a concrete example that restricting through car traffic and improving transit priority can increase speed, reliability, ridership, and cycling.

  6. 6

    Antiquated single-point switches and trolley-pole overhead power practices are blamed for slow intersection movements and reduced reliability, especially in winter and wet conditions.

  7. 7

    The transcript’s prescription is consistent: dedicated right-of-way where possible, signal priority for streetcars, and network-wide level boarding to make transit a viable alternative to driving.

Highlights

Toronto’s streetcars are repeatedly held at red lights and slowed by car priority—even on routes with dedicated lanes—because transit signal priority isn’t consistently delivered.
Low-floor streetcars don’t guarantee accessibility if platforms aren’t built for level boarding; wheelchair boarding in Toronto depends on driver ramp deployment triggered by a button.
The King Street Pilot Project is described as a rare win: faster, more reliable service and ridership rising to about 84,000 passengers per day, despite political efforts to dilute the plan.
Single-point switches require operators to stop and visually confirm switch positions, with very low speeds through intersections due to derailment risk.
Trolley poles are linked to disconnections, power limitations (including air-conditioning constraints), and faster wear in wet weather—reducing streetcar availability when demand is high.

Topics

  • Toronto Streetcars
  • Transit Signal Priority
  • Level Boarding
  • King Street Pilot
  • Trolley Poles
  • Single-Point Switches

Mentioned

  • Bombardier Flexity
  • Jennifer Keesmaat
  • Rob Ford