Design of Intermodal Passenger Terminal
Contents |
[edit]
Introduction
A multimodal passenger terminal is transportation centre in which several modes of transportation are physically and operationally integrated, usually under one roof.
At one terminal, complex vehicles arrive and depart while passengers interchange between the modes. Interchanges interconnect different transport modes that complement each other to accommodate a person’s journey from its origin to its destination. They are key public transport nodes. The function of the interchange is to reduce the distance between transport modes to facilitate multi-activities patterns.
The benefits of multimodal transport include time-saving, reduced waiting time, urban integration, reduced pollution, carbon emission, noise and congestions, and improvement of business operational models.
Multimodal passenger terminals can accommodate bus, rail, transit, taxi, automobile, ferry and aircraft modes. Mode integration can be achieved by methods such as coordinated schedules, joint use of services, and fare integration.Designing intermodal terminals is a multi-disciplinary task, the aim of which is to obtain maximum efficiency and enhance accessibility to all users.
Travel information and intermodal services are provided in all zones as well as in the facilities and retailing. The main design considerations are safety and security, transfer conditions, emergency planning, information, aesthetics, services and facilities, environmental quality, and comfort of waiting time.
The factors that influence the architecture of an interchange include; users, operators, third part deals with local impacts, governance and business models, mobility patterns, urban density and location of activities, technology, land use planning and social concerns.
The typologies of intermodal terminals depend on functions, logistics and spatial location (local constraints).
Demand – the volume of passengers define the size of the size of the terminal, the need for space and access characteristics. There are three levels of demand:
- Less than 30,000 passengers/day.
- Between 30,000 and 120,000 passengers/day.
- More than 120,000 passengers/ day.
Modes of transport include:
- Intermodal terminal with buses as the dominant mode of transport.
- Intermodal terminal with rail as the dominant mode of transport.
- Two or more public transport modes or different lines of the same mode jointly.
[edit] The physical components of intermodal terminals
The interchange will typically have three spatial zones:
- Access-egress zone - a zone in which links to the local area and access to transport modes are present.
- Facilities zones - a zone that comprises supporting services like retail shops, restaurants, ticketing, hotels etc.
- Arrival-departure - this caters for intermodal transfers.
[edit] The access-egress zone
This zone should provide facilities and services for users arriving and leaving the terminal. Services and facilities in this zone are those that aid safe, efficient movement in and out of the terminal enhancing convenient access, signposting and way finding. Outside waiting areas should be provided with shelters for those waiting for public transport.
[edit] The facilities and retail zone
This is a zone where travellers who have more time available to spend at the terminal such as tourists, can do shopping or eating while waiting for transfer. It also provides space for ticketing services and contains real time information.
[edit] The transport/transfer zone
This a zone that users are waiting for transport modes. This zone should be convenient to all and easy to navigate, and should contain provision of up to date information.
[edit] Related articles on Designing Buildings Wiki
Featured articles and news
What they are, how they work and why they are popular in many countries.
Plastic, recycling and its symbol
Student competition winning, M.C.Esher inspired Möbius strip design symbolising continuity within a finite entity.
Do you take the lead in a circular construction economy?
Help us develop and expand this wiki as a resource for academia and industry alike.
Warm Homes Plan Workforce Taskforce
Risks of undermining UK’s energy transition due to lack of electrotechnical industry representation, says ECA.
Cost Optimal Domestic Electrification CODE
Modelling retrofits only on costs that directly impact the consumer: upfront cost of equipment, energy costs and maintenance costs.
The Warm Homes Plan details released
What's new and what is not, with industry reactions.
Could AI and VR cause an increase the value of heritage?
The Orange book: 2026 Amendment 4 to BS 7671:2018
ECA welcomes IET and BSI content sign off.
How neural technologies could transform the design future
Enhancing legacy parametric engines, offering novel ways to explore solutions and generate geometry.
Key AI related terms to be aware of
With explanations from the UK government and other bodies.
From QS to further education teacher
Applying real world skills with the next generation.
A guide on how children can use LEGO to mirror real engineering processes.
Data infrastructure for next-generation materials science
Research Data Express to automate data processing and create AI-ready datasets for materials research.
Wired for the Future with ECA; powering skills and progress
ECA South Wales Business Day 2025, a day to remember.
AI for the conservation professional
A level of sophistication previously reserved for science fiction.
Biomass harvested in cycles of less than ten years.
An interview with the new CIAT President
Usman Yaqub BSc (Hons) PCIAT MFPWS.
Cost benefit model report of building safety regime in Wales
Proposed policy option costs for design and construction stage of the new building safety regime in Wales.
Do you receive our free biweekly newsletter?
If not you can sign up to receive it in your mailbox here.
























