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Green Economy Journal Issue 61

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ITDP<br />

MOBILITY<br />

LAST-MILE DELIVERIES<br />

Last-mile deliveries occupy a crucial role in urban logistics by facilitating<br />

the transportation of goods from central distribution centres to their<br />

final destinations. However, relying solely on motorised vehicles is<br />

costly, limits accessibility and contributes to traffic congestion and<br />

greenhouse gas emissions.<br />

Tactical cycling lanes create safe and efficient last-mile delivery<br />

options by separating micromobility devices (including NMT) from<br />

larger vehicles travelling at high speeds and pedestrians walking<br />

slowly (figure 4). Investing in these lanes brings about reduced<br />

travel times for last-mile deliveries using e-bikes as it facilitates<br />

more deliveries to be accomplished almost matching, and in certain<br />

circumstances surpassing, those delivered by motorised vehicles.<br />

E-bikes navigate congested areas better than larger vehicles.<br />

Currently, in Cape Town and Johannesburg, last-mile deliveries<br />

are made mostly by motorised vehicles with an average speed of<br />

20km per hour. This speed is the same as most bicycles in cities,<br />

while e-bicycles are on average limited to 25km per hour in<br />

cities. By implementing dedicated lanes that are connected and<br />

protected at intersections, last-mile delivery companies like <strong>Green</strong><br />

Riders in Cape Town can, along with other NMT users, overcome<br />

traffic congestion and bolster decarbonisation in the land-use and<br />

transportation sectors.<br />

The city of Chennai, India, spent the last seven years implementing<br />

dedicated bicycle lanes which have successfully benefited the<br />

local last-mile delivery economy. It started with small policies and<br />

tactical cycling lanes in 2014 and remained dedicated to this effort,<br />

even by increasing its tactical lanes investment in 2020. Chennai<br />

served as an example for other cities, such as Pune, which later<br />

planned to transform 300km of streets into new bicycle lanes. Since<br />

2020, over 100 cities in India have developed their own cycling<br />

programme following the Cycles4Change Challenge set by the<br />

national government.<br />

Figure 5. Before and after tactical lanes in Chennai, India.<br />

Furthermore, tactical cycling lanes support endeavours toward<br />

sustainability by promoting eco-friendly practices. E-micromobility<br />

devices emit fewer emissions than traditional motorised vehicles,<br />

aligning with sustainability goals and reducing the carbon footprint<br />

of a city while mitigating the consequences of climate change.<br />

Operation costs are reduced, particularly for businesses engaged<br />

in last-mile delivery, which is one of the main drivers for African cities<br />

adopting the lane infrastructure. E-micromobility vehicles are more<br />

economical to purchase and maintain compared to motorised vehicles.<br />

They require less fuel, entail lower maintenance expenses and do not<br />

subject companies to costs related to parking or congestion charges.<br />

Such cost advantages enable delivery companies, particularly SMEs,<br />

to operate more competitively by improving profit margins while<br />

creating youth-focused, green and local jobs.<br />

AFFORDABILITY AND EFFECTIVENESS<br />

On average, building a kilometre of urban highway costs the same<br />

as building 150km of bicycle paths and 10 000km of tactical cycling<br />

lanes. Cape Town, which has an insignificant NMT budget and<br />

outdated approach to cycling facilities, is ripe for innovation in<br />

mobility planning. Unlike large-scale infrastructure projects that<br />

demand extensive financial investments and lengthy implementation<br />

periods, tactical cycling lanes can be quickly executed at a fraction of<br />

the cost. The affordability stems from their adaptable nature, created<br />

using temporary materials like paint, bollards, kerbs and signage.<br />

The cost-effective approach allows cities to pilot and test cycling<br />

infrastructure before committing to permanent installations. By<br />

observing user feedback and usage patterns, adjustments can be<br />

made to ensure optimal efficiency. Tactical cycling lanes can also<br />

be implemented incrementally starting with key corridors before<br />

expanding as demand increases.<br />

That is exactly how South America’s Bogotá, Columbia, could<br />

expand its bicycle network of over 80km to the already existing<br />

550km in just a few hours. They used temporary materials that<br />

they could easily move, allowing them to test other locations.<br />

They tried three different locations within three days. This phased<br />

and agile approach reduces the initial investment required while<br />

immediately benefiting e-micromobility users. It enables cities<br />

to allocate resources efficiently by focusing on areas with the<br />

highest demand and significant impact on last-mile deliveries and<br />

movement of people.<br />

The effectiveness of tactical cycling infrastructure lies in its ability<br />

to create a connected network of dedicated lanes for e-micromobility.<br />

Strategic planning ensures seamless connectivity between crucial<br />

destinations such as residential areas, commercial districts and<br />

transportation hubs. The comprehensive network encourages<br />

the adoption of e-micromobility by providing safe and efficient<br />

routes throughout journeys. In addition, these lanes maximise<br />

their effectiveness by repurposing underutilised road space or<br />

reallocating lanes from motorised vehicles. This optimisation<br />

minimises conflicts between different road users without requiring<br />

extensive construction or disrupting traffic flow.<br />

The city of Jakarta, Indonesia, is a great example. During the<br />

pandemic, temporary bicycle lanes were implemented and modified<br />

to be the most effectively used. The result was an increase of<br />

50% to 500% of cyclists. The city is now focused on using shared<br />

e-micromobility for first/last mile solutions to attract more people.<br />

In this example, the scalability of tactical cycling infrastructure<br />

is worth noting. As the demand for e-micromobility increases<br />

alongside last-mile deliveries, cities can expand the network of<br />

cycling lanes accordingly.<br />

Protected intersections are usually forgotten in cycling lane design.<br />

Despite the radical increase in separated cycling lanes in the last<br />

decade globally, unprotected cycling intersections are enough to<br />

discourage cycling. Intersections that include slip lanes are widespread<br />

across major African cities with wide-turning radii for cars creating<br />

very unsafe spaces for cyclists and pedestrians alike.<br />

In the City of Melbourne, research indicates a stark contrast in<br />

cyclist confidence levels based on intersection protection. Only<br />

16% of riders report feeling confident cycling through unprotected<br />

intersections, compared to a significant 73% who feel secure with<br />

protected intersections. This disparity is more evident when comparing<br />

confidence levels associated with protected lanes versus merely<br />

painted lanes: 22% versus the low 16% for intersections, respectively.<br />

Rather than new infrastructure projects that can be expensive,<br />

time-consuming and potentially divisive, tactical urbanism<br />

deploys quick, often temporary, solutions to test and refine urban<br />

interventions. In the context of intersection redesign, tactical cycling<br />

lanes offer flexible, incremental ways to redesign an intersection<br />

in several forms.<br />

Figure 6. Example of a tactical intersection to protect both cyclists<br />

and pedestrians.<br />

The scalability of tactical cycling lanes extends beyond physicality<br />

by incorporating smart technologies and data-driven solutions to<br />

enhance user experience and optimise operational efficiency. By<br />

utilising real-time data on e-micromobility usage patterns, cities<br />

can strategically place charging stations, identify areas with high<br />

demand and plan future infrastructure developments accordingly.<br />

PUBLIC-PRIVATE PARTNERSHIPS<br />

Public-private partnerships present a new opportunity to build muchneeded<br />

infrastructure for the economy. It is clear from research that<br />

safe and dedicated cycling lanes have a catalytic role to play but the<br />

question then becomes how do we build this tactical intervention<br />

in the background of a collapsing state?<br />

Tactical cycling lanes that are cheaper, experimental and effective<br />

allow for the private sector through the Safe Passage Programme<br />

to make big changes to South African roads. An example of such is<br />

*Written by Roland Postma and Brice de Meester<br />

MOBILITY<br />

a partnership between the Suppliers Development Initiative (SDI)<br />

Micro-Enterprise Trust and Young Urbanists NPC, which seeks to<br />

empower the micro-economy through fleet partners like <strong>Green</strong><br />

Riders by creating safe infrastructure for them to access markets.<br />

The Safe Passage Programme, with its focus on connecting informal<br />

and formal areas, is in the process of putting down more than 800<br />

tactical bollards in Cape Town on existing cycling lanes to make it<br />

safer for green riders and the public.<br />

The City of Cape Town’s Department of Urban Mobility approved<br />

the assessment in early 2023 and construction is set to take place<br />

during the latter parts of 2023 with the funds being secured through<br />

the SDI Micro-Enterprise Trust. This is only phase 01 of the first Safe<br />

Passage that will look to complete a safe route between Langa and<br />

the CBD of Cape Town (Figures 2 and 4 refer).<br />

Other planned Safe Passages include Masiphumelele to Fish Hoek,<br />

Cape Town and Mamelodi to Pretoria East with CityConsolidator<br />

Africa. Masiphumelele to Fish Hoek is another big opportunity where<br />

more than 20% of the residents of the township are cyclists, while<br />

the primary mode is taxis, followed by walking.<br />

Mamelodi to Pretoria East also showcases a considerable healthy<br />

portion of the population using cycling to get to work in both areas,<br />

research has shown cyclists from these areas cite unsafe infrastructure<br />

followed by crime as being the biggest barriers in their commute.<br />

Both areas can be used for fleet partners like <strong>Green</strong> Riders and other<br />

companies to train and hire local youth when the implementation<br />

of safe cycling lanes commences.<br />

African cities confront unique challenges driven by rapid<br />

urbanisation. This necessitates proactive strategies to address the<br />

associated strains on society and the economy. E-micromobility<br />

presents a low-hanging fruit solution to Africa’s transportation<br />

challenges fully unlocking its potential hinges on aligning<br />

infrastructure development with these goals. Tactical cycling<br />

lanes come to the fore as pivotal catalysts for this expansion.<br />

By fostering the growth of tactical cycling infrastructure,<br />

policymakers, transport engineers and urban planners can create<br />

an interconnected network of efficient routes. This urbanism<br />

approach combined with resources sourced through public-private<br />

partnerships reduces the financial burden and enables cities to<br />

respond swiftly to evolving needs. By investing in infrastructure<br />

and harnessing the potential of e-micromobility, African cities<br />

can pave the way toward an enduring, and all-encompassing<br />

urban transportation system.<br />

E-micromobility presents a lowhanging<br />

fruit solution to Africa’s<br />

urban transportation challenges.<br />

REFERENCES<br />

Germán A. Carvajal, Olga L. Sarmiento, Andrés L. Medaglia, Sergio Cabrales, Daniel A. Rodríguez, D. Alex Quistberg, Segundo López. 2020. Bicycle safety in Bogotá: A seven-year analysis of bicyclists’ collisions<br />

and fatalities. Accident Analysis & Prevention. 144: 1 – 12.<br />

Pishue, B. and Brainard, A. 2023. 2023 INRIX “Return to Office” Report.<br />

Rosas-Satizábal, D. and Rodriguez-Valencia, A. 2019. Factors and policies explaining the emergence of the bicycle commuter in Bogotá. Case Studies on Transport Policy. 7 (1): 138-149.<br />

Schleinitz, K., Petzoldt, T., Franke-Bartholdt, L., Krems, J.F., & Gehlert, T. 2017. The German Naturalistic Cycling Study – Comparing cycling speed of riders of different e-bikes and conventional bicycles. Safety<br />

Science. 92: 290 - 297.<br />

https://africa.itdp.org/actionable-steps-towards-reclaiming-streets-in-africa/<br />

http://e-micromobility.africa/our-approach/<br />

https://www.fiafoundation.org/media/xmwls4t2/cc-protected-oct201022.pdf<br />

https://nacto.org/publication/dont-give-up-at-the-intersection/<br />

https://repository.up.ac.za/bitstream/handle/2263/14739/Bechstien_Cycling%282010%29.pdf?sequence=1<br />

https://www.bikeutah.org/tactical-urbanism<br />

https://www.itdp.org/publication/economics-of-cycling/<br />

https://www.esi-africa.com/news/a-need-for-a-just-energy-transition-that-uses-e-mobility/<br />

https://www.iol.co.za/news/environment/pics-empowering-youth-and-transforming-last-mile-delivery-in-south-africa-39c9413a-0823-41ed-8740-543843d3d107<br />

https://www.itdp.in/some-paint-few-brushes-kids-young-old-sringeri-mutt-roads-tale-of-transformation/<br />

https://www.itdp.org/wp-content/uploads/2021/09/CyclingisBoomingST33092021.pdf<br />

https://www.news24.com/citypress/business/npc-government-incapable-of-implementing-ndp-20230917<br />

https://www.weforum.org/agenda/2020/08/a-vision-for-post-pandemic-mobility-in-african-cities/<br />

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