Funding and Partners
Thank you to all the fantastic supporters that fund our work and help us achieve an impact.
We are grateful for the generous funding provided by the ITF that funded the Transport 2040 flagship project.
We also thank our network at these organizations:
Please get in touch with us if you are interested in becoming a partner or want to learn more about our research.
Programme Announcements

Transport 2040 Phase 2

The ITF has funded a second phase

A New Study Released

Study on social aspects in the maritime transport sector

New Reports Available

Transport 2040 Technology and Transformation reports now available

Flagship Report Released

"Transport 2040: Automation Technology Employment - the Future of Work”.
This study has been undertaken in furtherance of the purposes and objectives of the United Nations Sustainable Development Goals. It addresses the following Sustainable Development Goals in particular:

Highlights

1
Economic benefits, demographic trends and safety factors are catalysts for automation; but in many areas of global transport the pace in the introduction of automation will be gradual.
2
The increasing volume of trade leads to more demand for transportation in the future, while regional changes in transportation patterns are expected.
3
With the gradual pace in the introduction of technology and the increased volume of trade, their effects on employment are predictable. Low- and medium skilled workers will be exposed to the high risk of automation. However, the pace of introduction and diffusion of technologies will depend on differences in the development stage of countries and their comparative advantages.
4
Automation and technology are influenced by the local context. The assessment of individual country profiles shows that countries and regions are not at the same level of readiness to adopt new technologies and automation. An analysis of relevant key factors highlights the gap between developed and developing countries.
1
The introduction of automation will be evolutionary rather than revolutionary. Automation and new technology will be introduced progressively in the maritime sector at a slower pace than in other industries. The development of international guidelines and regulation on autonomous ships are unlikely to be achieved within the next decade. Factors that depend on regions and countries can determine the speed of implementation of highlight automated maritime transport systems.
Highly automated ships have the potential to reduce the global demand for seafarers when comparing with conventional ships. Foresight simulations conducted within the study show that the the introduction of highly automated ships can reduce the global demand for seafares by 22 percent when compared with the current technological status quo (see fig. on the left). However, the simulations show a long-term growing demand for seafarers over the next two decades due to long-term increasing international trade. The number of seafarers required by 2040 is expected to be significantly higher than today. The report provides the details on how these predictions computed and what factors can affect those.
2
In many areas, automation is likely to result in a shift of the workforce, not in labour reduction. Automation will likely affect low- and middle-skilled jobs, intensive on predictable physical activities and repetitive data processing. For these group, automation is already existing at significant parts of the job. Further automation is expected  with the consequence that parts of their jobs responsibilities will disappear. In the meantime, automation will create a demand for new types of jobs, such as remote operators, worldwide operating maintenance crews and mobility-as-a-service providers. The demand for labour will not disappear but competences and skills needed will change as tasks will change.
3
Transport has a high potential for automation, like other industries but in slower adoption rates. Maritime workers face the same challenges when it comes to automation than workers in other industries. The increase in the use of new technologies, such as artificial intelligence or mobile robotics together with the declining price of computing power, is likely to have a similar impact on tasks of workers across most industries, including maritime. History has shown that automation of routine-based tasks has resulted in a reduction of middle-paid jobs, causing workers to shift to low-skill, low-pay jobs.
Only a small amount of workers has been upgraded for high-skill, high-pay jobs. The pace through which the introduction of automation is phased in varies across tasks, skills, the type of job and countries. In most cases, automation is triggered by security, safety and efficiency. It is rare when the introduction of automation is only motivated by reducing labour costs.
5
Autonomous ships are not likely to replace conventional cargo ships and render conventional seafarers obsolete. Autonomous ships will become part of some local transport systems as an alternative to other transport modes. The increasing digitalization of fleets (see below, on the left) will continue to transport seafarers’ tasks into more digital ones, reducing the need for human intervention and involvement. The future seafarer will benefit from having digital skills in three domains (se below, on the right): data fluency and an ability to interpret and analyze data; digital operation of physical entities; software engineering of fundamental programs and systems.

Publications

Automation, Technology, Employment

The Future of Work

Transport 2040

Transport 2040 is a first-ever, independent and comprehensive assessment of how the global transport industry will change as a result of the introduction of more automation and advanced technologies such as artificial intelligence, robotics or blockchain. It forecasts and analyses trends and developments in the major transport sectors to 2040 with an emphasis on the implications for the future of work. The research pays particular attention to the cases of autonomous ships and automated ports, in which comprehensive case studies are developed. The findings and recommendations are a crucial tool to help prepare the transport industry to continue to contribute to the wellbeing of economies, societies and communities worldwide.
Download

Analysis of Technological Developments in Transport

Maritime, Air, Rail and Road

Transport 2040

This report expands and details the technological trends described in the flagship report. It provides an in-depth analysis of automation and new technologies and its effects on the transport sector. The report digs in the various transport modes separately and makes it easier to be used. The report explores the impact of fundamental macro and micro-level factors that affect the development of specific technological innovations. An estimation of implications of automation is assessed as well as start-up curves for particular technological innovations, such as highly automated ships, automated ground vehicles in airports, automatic trains, or heavy goods road vehicles across different geographical regions.
Download

Autonomous Ships: A New Paradigm for Norwegian Shipping

Technology and Transformation

Transport 2040

Autonomous ships are a hot topic in the maritime sector. The case of Yara Birkeland in Norway has attracted interest in autonomous shipping. Still, no much is evidence can be found on the directions this journey can take. This report attempts to fill this gap by providing detailed information related to the expansion of autonomous shipping from a Norweigan perspective. Country-specific factors are described and the views multiple stakeholders involved analysed, including seafarers. Conclusions and lessons that help to prepare for the future are drawn.
Download

Automation in Airports: Automatic Baggage Handling Systems

Technology and Transformation

Transport 2040

Baggage handling has been long recognized as one of the most likely areas for airport automation. Huge investments have been made over the years as An efficient baggage-handling system is of critical importance to the aviation industry. This study highlights the challenges and implications of airport baggage handling automation, including its effect on the labour market. It concludes with lessons that show the complexity of increasing automation in airports, including its benefits, costs and responsibilities.
Download

Truck Platooning: The Australian Case

Technology and Transformation

Transport 2040

Vehicle automation in the road sector has been high on the political agenda for several years now, with its promise of road safety and transport efficiency improvements. Truck platooning (truck automation) is often quoted by experts as a likely first-use case to be accomplished. However, the expert discourse is often very technology focused, starting with the solutions rather than analysing problems and responses first. This report used the case of Australia to detail the complexity of the issue in a specific geographical region that has particular needs and barriers. The report concludes with lessons specific to Australia, but that can valuable to other cases with similar settings.
Download

Automation, Technology, Employment

The Future of Work

Transport 2040

Transport 2040 is a first-ever, independent and comprehensive assessment of how the global transport industry will change as a result of the introduction of more automation and advanced technologies such as artificial intelligence, robotics or blockchain. It forecasts and analyses trends and developments in the major transport sectors to 2040 with an emphasis on the implications for the future of work. The research pays particular attention to the cases of autonomous ships and automated ports, in which comprehensive case studies are developed. The findings and recommendations are a crucial tool to help prepare the transport industry to continue to contribute to the wellbeing of economies, societies and communities worldwide.
Download

Analysis of Technological Developments in Transport

Maritime, Air, Rail and Road

Transport 2040

This report expands and details the technological trends described in the flagship report. It provides an in-depth analysis of automation and new technologies and its effects on the transport sector. The report digs in the various transport modes separately and makes it easier to be used. The report explores the impact of fundamental macro and micro-level factors that affect the development of specific technological innovations. An estimation of implications of automation is assessed as well as start-up curves for particular technological innovations, such as highly automated ships, automated ground vehicles in airports, automatic trains, or heavy goods road vehicles across different geographical regions.
Download

Autonomous Ships: A New Paradigm for Norwegian Shipping

Technology and Transformation

Transport 2040

Autonomous ships are a hot topic in the maritime sector. The case of Yara Birkeland in Norway has attracted interest in autonomous shipping. Still, no much is evidence can be found on the directions this journey can take. This report attempts to fill this gap by providing detailed information related to the expansion of autonomous shipping from a Norweigan perspective. Country-specific factors are described and the views multiple stakeholders involved analysed, including seafarers. Conclusions and lessons that help to prepare for the future are drawn.
Download

Automation in Airports: Automatic Baggage Handling Systems

Technology and Transformation

Transport 2040

Baggage handling has been long recognized as one of the most likely areas for airport automation. Huge investments have been made over the years as An efficient baggage-handling system is of critical importance to the aviation industry. This study highlights the challenges and implications of airport baggage handling automation, including its effect on the labour market. It concludes with lessons that show the complexity of increasing automation in airports, including its benefits, costs and responsibilities.
Download

Truck Platooning: The Australian Case

Technology and Transformation

Transport 2040

Vehicle automation in the road sector has been high on the political agenda for several years now, with its promise of road safety and transport efficiency improvements. Truck platooning (truck automation) is often quoted by experts as a likely first-use case to be accomplished. However, the expert discourse is often very technology focused, starting with the solutions rather than analysing problems and responses first. This report used the case of Australia to detail the complexity of the issue in a specific geographical region that has particular needs and barriers. The report concludes with lessons specific to Australia, but that can valuable to other cases with similar settings.
Download
Related Academic Publications

Emergent Technologies and Maritime Transport: Challenges and Opportunities

Authors:
Tiago Fonseca, Khanssa Lagdami, Jens-Uwe Schröder-Hinrichs
Publish date:
Nov 2019

Assessing Innovation in Transport: An Application of the Technology Adoption (TechAdo) Model to Maritime Autonomous Surface Ships (MASS)

Authors:
Tiago Fonseca, Khanssa Lagdami, Jens-Uwe Schröder-Hinrichs
Publish date:
Nov 2020

Study on social aspects within the maritime transport sector

Authors:
Laura Carballo Piñeiro, Tiago Fonseca, Khanssa Lagdami
Publish date:
Jul 2020
Related Academic Publications

Emergent Technologies and Maritime Transport: Challenges and Opportunities

Authors:
Tiago Fonseca, Khanssa Lagdami, Jens-Uwe Schröder-Hinrichs
Publish date:
Nov 2019

Heading

Authors:
This is some text inside of a div block.
Publish date:
This is some text inside of a div block.

Emergent Technologies and Maritime Transport: Challenges and Opportunities

Authors:
Tiago Fonseca, Khanssa Lagdami, Jens-Uwe Schröder-Hinrichs
Publish date:
Nov 2019

Assessing Innovation in Transport: An Application of the Technology Adoption (TechAdo) Model to Maritime Autonomous Surface Ships (MASS)

Authors:
Tiago Fonseca, Khanssa Lagdami, Jens-Uwe Schröder-Hinrichs
Publish date:
Nov 2020

Study on social aspects within the maritime transport sector

Authors:
Laura Carballo Piñeiro, Tiago Fonseca, Khanssa Lagdami
Publish date:
Jul 2020

Country Profiles

Country Profile

Technology readiness: maritime

Heading

key maritime information for 2017

Country Profiles

Population (2017)
This is some text inside of a div block.
million
merchandise trade (US$)
This is some text inside of a div block.
million
fleet ownership (dwt)
This is some text inside of a div block.
thousands
gdp US$ (2017)
This is some text inside of a div block.
billion
fleet-national flag (dwt)
This is some text inside of a div block.
thousands
ship building (gt)
This is some text inside of a div block.
billion

Updates

What’s a Rich Text element?

The rich text element allows you to create and format headings, paragraphs, blockquotes, images, and video all in one place instead of having to add and format them individually. Just double-click and easily create content.

Static and dynamic content editing

A rich text element can be used with static or dynamic content. For static content, just drop it into any page and begin editing. For dynamic content, add a rich text field to any collection and then connect a rich text element to that field in the settings panel. Voila!

How to customize formatting for each rich text

Headings, paragraphs, blockquotes, figures, images, and figure captions can all be styled after a class is added to the rich text element using the "When inside of" nested selector system.

Country Profile

Technology readiness: maritime

Heading

key maritime information for 2017

Country Profiles

Population (2017)
This is some text inside of a div block.
million
merchandise trade (US$)
This is some text inside of a div block.
million
fleet ownership (dwt)
This is some text inside of a div block.
thousands
gdp US$ (2017)
This is some text inside of a div block.
billion
fleet-national flag (dwt)
This is some text inside of a div block.
thousands
ship building (gt)
This is some text inside of a div block.
billion

Updates

What’s a Rich Text element?

The rich text element allows you to create and format headings, paragraphs, blockquotes, images, and video all in one place instead of having to add and format them individually. Just double-click and easily create content.

Static and dynamic content editing

A rich text element can be used with static or dynamic content. For static content, just drop it into any page and begin editing. For dynamic content, add a rich text field to any collection and then connect a rich text element to that field in the settings panel. Voila!

How to customize formatting for each rich text

Headings, paragraphs, blockquotes, figures, images, and figure captions can all be styled after a class is added to the rich text element using the "When inside of" nested selector system.

Country Profile

Technology readiness: maritime

Country Profiles

key maritime information for 2017

Country Profiles

Today, the maritime sector is experiencing a historical transformation with the step-by -step integration of new and emerging technologies. Several countries around the world are participating in this transformation. Others are receiving technology transfers and might participate in this transformation in the future. Policy makers in the maritime field have an interest in identifying the pace and level of the introduction of new technologies in order to develop future strategies, including the preparation of the workforce and the skills and expertise that they will require.

To assist policy makers in determining these future strategies, the WMU has developed a framework for country profiling, and tested this method using 17 countries in respect of their adoption of new and emerging technologies in the maritime field.

Each Country Profile consists of three sections:

  • Basic data: Composed of key general data and key maritime information.
  • General profile: composed of performance indicators related to the adoption of new technologies.
  • Maritime profile: composed of performance factors related to the adoption of new technologies specific to the maritime field.
Population (2017)
million
merchandise trade (US$)
million
fleet ownership (dwt)
thousands
gdp US$ (2017)
billion
fleet-national flag (dwt)
thousands
ship building (gt)
billion

Country Profile

Technology readiness: maritime

Australia

key maritime information for 2017

Country Profiles

Population (2017)
24.3
million
merchandise trade (US$)
388,470
million
fleet ownership (dwt)
2,355
thousands
gdp US$ (2017)
1,259.0
billion
fleet-national flag (dwt)
1,907
thousands
ship building (gt)
..
billion

Country Profile

Technology readiness: maritime

Brazil

key maritime information for 2017

Country Profiles

Population (2017)
206.1
million
merchandise trade (US$)
328,778
million
fleet ownership (dwt)
15,783
thousands
gdp US$ (2017)
1,798.6
billion
fleet-national flag (dwt)
4,347
thousands
ship building (gt)
218,764
billion

Country Profile

Technology readiness: maritime

China

key maritime information for 2017

Country Profiles

Population (2017)
1,382.7
million
merchandise trade (US$)
3,685,557
million
fleet ownership (dwt)
158,884
thousands
gdp US$ (2017)
11,218.3
billion
fleet-national flag (dwt)
76,200
thousands
ship building (gt)
22,178,672
billion

Country Profile

Technology readiness: maritime

Denmark

key maritime information for 2017

Country Profiles

Population (2017)
5.7
million
merchandise trade (US$)
180,899
million
fleet ownership (dwt)
38,315
thousands
gdp US$ (2017)
306.7
billion
fleet-national flag (dwt)
17,154
thousands
ship building (gt)
24,937
billion

Country Profile

Technology readiness: maritime

France

key maritime information for 2017

Country Profiles

Population (2017)
64.6
million
merchandise trade (US$)
1,073,998
million
fleet ownership (dwt)
42,084
thousands
gdp US$ (2017)
2,463.2
billion
fleet-national flag (dwt)
6,905
thousands
ship building (gt)
227,867
billion

Country Profile

Technology readiness: maritime

Ghana

key maritime information for 2017

Country Profiles

Population (2017)
27.6
million
merchandise trade (US$)
24,044
million
fleet ownership (dwt)
27
thousands
gdp US$ (2017)
43.3
billion
fleet-national flag (dwt)
33
thousands
ship building (gt)
..
billion

Country Profile

Technology readiness: maritime

Japan

key maritime information for 2017

Country Profiles

Population (2017)
126.9
million
merchandise trade (US$)
1,252,502
million
fleet ownership (dwt)
228,980
thousands
gdp US$ (2017)
4,938.6
billion
fleet-national flag (dwt)
32,274
thousands
ship building (gt)
13,348,773
billion

Country Profile

Technology readiness: maritime

Korea, Rep.

key maritime information for 2017

Country Profiles

Population (2017)
51.2
million
merchandise trade (US$)
901,618
million
fleet ownership (dwt)
78,834
thousands
gdp US$ (2017)
1,411.2
billion
fleet-national flag (dwt)
16,987
thousands
ship building (gt)
25,265,934
billion

Country Profile

Technology readiness: maritime

Nigeria

key maritime information for 2017

Country Profiles

Population (2017)
183.6
million
merchandise trade (US$)
74,000
million
fleet ownership (dwt)
4,924
thousands
gdp US$ (2017)
406
billion
fleet-national flag (dwt)
3,623
thousands
ship building (gt)
..
billion

Country Profile

Technology readiness: maritime

Norway

key maritime information for 2017

Country Profiles

Population (2017)
5.3
million
merchandise trade (US$)
162,152
million
fleet ownership (dwt)
48,188
thousands
gdp US$ (2017)
370.4
billion
fleet-national flag (dwt)
20,073
thousands
ship building (gt)
161,594
billion

Country Profile

Technology readiness: maritime

Panama

key maritime information for 2017

Country Profiles

Population (2017)
4.0
million
merchandise trade (US$)
31,764
million
fleet ownership (dwt)
1,546
thousands
gdp US$ (2017)
55.1
billion
fleet-national flag (dwt)
332,878
thousands
ship building (gt)
..
billion

Country Profile

Technology readiness: maritime

Peru

key maritime information for 2017

Country Profiles

Population (2017)
31.5
million
merchandise trade (US$)
73,285
million
fleet ownership (dwt)
583
thousands
gdp US$ (2017)
195.1
billion
fleet-national flag (dwt)
542
thousands
ship building (gt)
..
billion

Country Profile

Technology readiness: maritime

Phillippines

key maritime information for 2017

Country Profiles

Population (2017)
104.2
million
merchandise trade (US$)
146,841
million
fleet ownership (dwt)
1,995
thousands
gdp US$ (2017)
304.7
billion
fleet-national flag (dwt)
6,341
thousands
ship building (gt)
1,168,357
billion

Country Profile

Technology readiness: maritime

South Africa

key maritime information for 2017

Country Profiles

Population (2017)
55.9
million
merchandise trade (US$)
91,592
million
fleet ownership (dwt)
1,940
thousands
gdp US$ (2017)
294.1
billion
fleet-national flag (dwt)
460
thousands
ship building (gt)
2,999
billion

Country Profile

Technology readiness: maritime

Sweden

key maritime information for 2017

Country Profiles

Population (2017)
10.0
million
merchandise trade (US$)
280,309
million
fleet ownership (dwt)
6,104
thousands
gdp US$ (2017)
511.4
billion
fleet-national flag (dwt)
1,352
thousands
ship building (gt)
..
billion

Country Profile

Technology readiness: maritime

Turkey

key maritime information for 2017

Country Profiles

Population (2017)
79.8
million
merchandise trade (US$)
341,148
million
fleet ownership (dwt)
27,951
thousands
gdp US$ (2017)
857.4
billion
fleet-national flag (dwt)
8,568
thousands
ship building (gt)
105,645
billion

Country Profile

Technology readiness: maritime

USA

key maritime information for 2017

Country Profiles

Population (2017)
323.3
million
merchandise trade (US$)
3,701,165
million
fleet ownership (dwt)
60,282
thousands
gdp US$ (2017)
18,569.1
billion
fleet-national flag (dwt)
11,435
thousands
ship building (gt)
344,557
billion