Shipyards completed 2,920 vessels in 2025, while the trading fleet they joined counts about 112,500 ships. An integrated marine automation system is the shipboard control network that links engine-room alarms, power management, propulsion control and cargo valves on one redundant platform; the Integrated Marine Automation System market covers that hardware, software and commissioning for newbuilds and retrofits. Douglas Insights sizes it at USD 4.35 billion in 2025, from 4,742 installations at an average USD 916,900 each, and models USD 8.78 billion by 2035, a 7.28% revenue CAGR. The International Maritime Organization (IMO) Code for Maritime Autonomous Surface Ships (MASS), a non-mandatory instrument, took effect on 1 July 2026 under the IMO adoption briefing, and it pushes remote monitoring into specifications. The study belongs to our Marine and Shipping Equipment coverage and follows the research methodology published for every model.
Which integrated marine automation system segment makes the money, from alarm monitoring to ballast control?
Machinery alarm and monitoring systems lead with 34.6% of 2025 value, USD 1.50 billion of the USD 4.35 billion integrated marine automation system total. Every classed merchant ship needs engine-room alarm and monitoring to run periodically unattended machinery spaces, so the category appears on all 4,742 installations counted, from coastal tankers to cruise ships.
| Segment | Share 2025 | Value 2025 | CAGR 2026-2035 | Value 2035 |
|---|---|---|---|---|
| Machinery alarm and monitoring systems | 34.6% | USD 1.50 billion | 6.12% | USD 2.72 billion |
| Power management systems | 21.8% | USD 947.8 million | 9.46% | USD 2.34 billion |
| Propulsion and thruster control | 17.9% | USD 778.3 million | 7.05% | USD 1.54 billion |
| Integrated bridge and navigation interfaces | 14.3% | USD 621.7 million | 7.83% | USD 1.32 billion |
| Cargo and ballast control | 11.4% | USD 495.7 million | 5.57% | USD 852.7 million |
Machinery alarm and monitoring systems hold USD 1.50 billion because the sensor count scales with engine-room complexity: a dual-fuel engine adds gas-valve and leak-detection points to every package. Power management systems carry USD 947.8 million, 21.8%, and grow fastest at 9.46% a year to USD 2.34 billion, because battery hybrids and shore-power plugs need load-sharing logic that a diesel-only ship never bought. Propulsion and thruster control accounts for USD 778.3 million, 17.9%, tied to the azimuth thrusters and dynamic positioning sets on offshore and cable vessels.
Integrated bridge and navigation interfaces add USD 621.7 million, 14.3%, as owners route bridge alarms and engine telegraphs through the same automation network; that segment rises 7.83% a year. Cargo and ballast control brings USD 495.7 million, 11.4%, and grows slowest at 5.57% a year to USD 852.7 million, because tank gauging and valve remote control are already standard on tankers and gas carriers. Douglas Insights expects power management to move from 21.8% to 26.7% of integrated marine automation system value by 2035.
How does newbuild versus retrofit work split integrated marine automation system installations in 2025?
Newbuild installations supply 2,920 of the 4,742 integrated marine automation system projects counted for 2025, worth USD 2.93 billion or 67.3% of value. Retrofit work on the existing fleet supplies the other 1,822 projects and USD 1.42 billion, because obsolete controllers and alarm screens on ships built two decades ago reach end of support.
The retrofit count is a modelled 1.62% upgrade rate applied to the 112,500-ship fleet. A retrofit package averages USD 780,000 in the model, below the newbuild average of about USD 1.00 million, since owners keep the field sensors and cabling and replace the controllers, network and operator stations. Fewer than 2 in 100 ships upgrade in a year. Douglas Insights counts retrofit growth at about 3.9% a year to 2035 against 3.0% for newbuild units, as class surveys of unattended engine rooms flag aging alarm hardware.
Why are shipyard orderbooks and remote engine rooms lifting integrated marine automation system demand?
Three forces add 3.35 points a year to integrated marine automation system installations: shipyard orderbooks (1.45 points), fleet retrofits for cyber and alarm upgrades (1.10 points) and remote operation (0.80 points). Price per installation adds a further 3.80 points as scope widens on every vessel.
Shipyard backlog is the largest lever, worth 1.45 points of the volume leg. Shipyard order books held 5,695 ships of 157.1 million compensated gross tonnes (CGT) at the start of July 2025, about 1.95 years of output at the 2025 delivery rate of 2,920 vessels. Every one of those hulls needs an integrated marine automation system before sea trials, and owners now order dual-fuel engines, scrubbers and battery packs that each add control points. China built 1,119 of the 2,920 ships completed in 2025, according to Japanese shipbuilding association statistics, which is why Chinese yard tenders set the pace for package volumes. Korean yards built 231 ships averaging 86,271 gross tonnes (GT), the gas carriers and container ships with the deepest automation scope.
Fleet retrofit adds 1.10 points. The world trading fleet grew 5% in deadweight tonnage during 2025, and older ships in it run controllers that suppliers stop supporting after 15 to 20 years. Since International Association of Classification Societies (IACS) unified requirements on cyber resilience apply to ships contracted from 1 July 2024, owners refitting older tonnage increasingly specify the same segregated networks, so integrated marine automation system retrofit scopes now include firewalls, network monitoring and patch routines. Douglas Insights puts the 2025 retrofit pool at 1,822 ships, rising to about 2,670 a year by 2035.
Remote operation adds 0.80 points. The non-mandatory MASS Code effective from 1 July 2026 lets flag states trial remote control centres, and the IMO briefing sets 1 January 2032 as the expected entry into force of a mandatory version. Remote engine-room monitoring needs a shore link from the integrated marine automation system, so owners buy data servers and remote mimic screens even on crewed ships. Wärtsilä installed its first NACOS Connect remote mimics application on the cruise ship Sun Princess, giving shore staff a live view of the NACOS Platinum automation, according to the company. Douglas Insights reckons 18.4% of 2025 integrated marine automation system value already includes a shore-connectivity module, rising to 41.0% by 2035.
Price growth of 3.80% a year is a scope effect, not inflation alone. Hybrid power, cyber certification and remote access each add engineering hours and input and output channels, so the average installation climbs from USD 916,900 in 2025 to about USD 1.33 million in 2035.
Which bottlenecks hold back integrated marine automation system installations on cyber-certified newbuilds?
Two bottlenecks remove 0.95 points from integrated marine automation system volume growth in the slower case. A shipbuilding downturn after the 2025 to 2027 delivery peak takes 0.55 points, and cyber type-approval and integration delays take 0.40 points; both cut installations, not price.
Shipyard cyclicality is the heavier drag. The order book of 5,695 ships equals under two years of output, so integrated marine automation system suppliers see a hard landing if contracting slows; a two-year pause in orders for bulk carriers alone would take roughly 0.55 points off annual unit growth. Kongsberg Maritime reported a year-end 2025 order backlog of NOK 27.9 billion against revenue of NOK 27.1 billion, roughly one year of cover, which shows how short marine automation visibility is.
Cyber certification adds a second drag of about 0.40 points. Under the IACS cyber rules, every computer-based system on a newly contracted ship needs documented security capabilities, asset inventories and tests, and smaller integrated marine automation system vendors lack type-approved products. Douglas Insights estimates that the extra documentation adds 6% to 9% to commissioning hours on a typical cargo-ship package, and that late approvals push 2.5% of planned installations into the following year.
How much does an integrated marine automation system cost per vessel, from tug to cruise ship?
An integrated marine automation system averages USD 916,900 per installation in 2025. Realised bands run from USD 0.2 million to USD 0.5 million on small craft up to USD 2.5 million to USD 6 million on cruise ships and naval vessels, set by channel count and redundancy class.
Douglas Insights models newbuild packages by builder country: USD 1.62 million on a Korean-built ship averaging 86,271 GT, USD 1.12 million on a Chinese-built ship of 33,948 GT, USD 1.05 million on a Japanese-built ship of 28,336 GT, USD 2.35 million on a European-built ship of 8,623 GT and USD 380,000 on the small craft built elsewhere. European yards carry the top price because they build passenger ships and ferries with multi-zone redundancy, not the biggest hulls. A battery ferry shows the ceiling for a full electrical and automation scope: Norwegian Electric Systems, part of HAV Group, won a power system, integrated automation system and charging plug package for a ferry at Turkish yard Tersan valued at more than EUR 7 million.
Retrofit pricing sits lower at USD 780,000, because cabling and sensors stay in place. Chinese yard tenders cap price growth on bulk carriers; the 3.80% price leg comes almost entirely from added scope on hybrid, gas-fuelled and remotely monitored ships.
Which suppliers win integrated marine automation system contracts at Korean and Chinese shipyards?
Douglas Insights estimates that the top three integrated marine automation system suppliers, Kongsberg Maritime, Wärtsilä and ABB, hold 41.6% of 2025 value, based on disclosed segment revenue, published contract wins and yard reference lists. A long tail of national integrators supplies the rest.
| Company | Flagship platform | Position built on | Estimated share 2025 |
|---|---|---|---|
| Kongsberg Maritime | K-Chief | Korean and Chinese yard references, shuttle tankers, offshore | 19.3% |
| Wärtsilä | NACOS Platinum | Cruise, ferries, container ships, remote mimics | 12.1% |
| ABB | ABB Ability 800xA | Combined power, propulsion and automation on electric ships | 10.2% |
| Valmet | Valmet DNA | RoPax, cruise and Nordic owners | 3.4% |
| Praxis Automation Technology | Mega-Guard | Naval platforms, dredgers, offshore | 1.6% |
| Norwegian Electric Systems | Integrated power and automation | Battery ferries | 1.1% |
Kongsberg Maritime leads with an estimated 19.3% share. Its K-Chief integrated automation system goes with K-Pos dynamic positioning and AutoChief propulsion control on nine shuttle tankers Samsung Heavy Industries is building for Tsakos Group, with deliveries from 2027. Kongsberg Maritime reported revenue of NOK 27.1 billion for 2025. The parent signed a demerger plan on 17 December 2025 that set 23 April 2026 as the first trading day for Kongsberg Maritime ASA, as the Kongsberg release states, making the integrated marine automation system leader a stand-alone listed company.
Wärtsilä holds an estimated 12.1%, built on NACOS Platinum in cruise and container tonnage; group net sales were EUR 6.9 billion in 2025. ABB holds an estimated 10.2%: on 9 March 2026 Orange Marine chose its 800xA integrated automation system with Azipod propulsion for two cable repair vessels at Colombo Dockyard, due in 2028 and 2029, per the ABB release.
Valmet takes an estimated 3.4%. Finnlines selected the Valmet DNA integrated automation system for three RoPax ships on 22 April 2026, with delivery to the yard in 2026 and 2027, according to Valmet. Praxis Automation Technology, about 1.6%, won the integrated platform management system for the Colombian Navy PES frigate from Damen Naval in 2025 and opened a Qingdao facility to serve Chinese yards. Norwegian Electric Systems holds roughly 1.1% through battery ferry packages. Shipyard-owned integrators in China and Korea, and naval prime contractors covered in the Naval Combat Systems Market study, make up most of the remaining 52.3%.
Where are integrated marine automation system installations concentrated, by shipbuilding region?
Asia Pacific leads with USD 2.27 billion, 52.3% of 2025 integrated marine automation system value, because China, Korea and Japan built 1,708 of the 2,920 ships completed in 2025. Asia Pacific also grows fastest, at 8.21% a year to USD 5.00 billion by 2035.
Asia Pacific grows fastest because Chinese yards held 52.6% of 2025 completions by gross tonnage and keep adding capacity, and Korean yards held 27.6% with the most automation-heavy gas carriers. Europe follows with USD 1.15 billion, 26.5% of value, on cruise, ferry and offshore newbuilds and on the Nordic supplier base; Europe expands 6.04% a year to USD 2.07 billion. North America contributes USD 427.4 million in 2025, mostly navy, ferry and Jones Act retrofits, and reaches USD 800.0 million at 6.47% a year.
Middle East and Africa accounts for USD 291.7 million, driven by Gulf offshore support fleets and ship repair yards, and rises 7.62% a year to USD 607.9 million. Latin America adds USD 204.9 million and grows slowest at 3.79% a year to USD 297.1 million, as Brazilian offshore retrofits offset thin local shipbuilding. The wildcard is India: a national shipbuilding push would move integrated marine automation system demand into Asia Pacific faster than the base case assumes.
Which vessel classes, from bulk carriers to naval frigates, specify the richest integrated marine automation system scope?
Passenger ships and ferries buy the richest integrated marine automation system scope, at USD 2.5 million to USD 6 million per cruise ship. Commercial cargo ships supply 71.8% of the 4,742 installations, at about USD 0.9 million each, which makes them the volume base.
Douglas Insights counts four vessel classes. Commercial cargo ships, meaning bulk carriers, tankers, container ships and gas carriers, provide 3,405 installations and 58.9% of value. Passenger ships and ferries provide 512 installations and 19.7% of value, since redundancy rules for safe return to port double controller counts. Offshore support vessels provide 611 installations and 13.6% of value, driven by dynamic positioning and thruster control. Naval vessels provide 214 installations and 7.8% of value; integrated platform management on frigates and patrol ships carries damage-control functions that merchant packages skip. Unmanned survey craft, profiled in the Autonomous Marine Vehicles Market report, sit outside this count.
How far does the MASS Code push integrated marine automation system buyers toward remote operation?
Remotely operated functions account for 14.9% of 2025 integrated marine automation system value and reach 24.6% by 2035 in the model. The MASS Code lets flag states approve shore control trials on cargo ships, so owners now specify remote links at contract.
The model splits value by autonomy level. Partially automated systems, the classic unattended engine room with alarms relayed to duty engineers, take 83.7% of 2025 value. Remotely operated systems, where a shore centre monitors or controls machinery, take 14.9%. Autonomous functions, such as automatic engine-room load decisions without crew confirmation, take 1.4% and grow fastest. Under the code, the master keeps overall responsibility even off board, so suppliers sell supervisory automation, not crewless ships. Douglas Insights projects autonomous functions at 3.9% of integrated marine automation system value by 2035, held back until the mandatory code expected in 2032.
Which SOLAS rules and IACS cyber standards must an integrated marine automation system satisfy?
Two rule sets shape all 2,920 integrated marine automation system newbuild packages a year. Safety of Life at Sea (SOLAS) Chapter II-1 Regulations 46 to 53 govern unattended machinery spaces, and IACS unified requirements (UR) E26 and E27 add cyber resilience for ships contracted from 1 July 2024.
SOLAS Regulation 46 requires a ship with an unattended engine room to be as safe as one with a manned watch, and class notations such as DNV E0 test the alarms, shutdowns and standby starts that an integrated marine automation system performs. The cyber requirements, which ClassNK explains as UR E26 for the ship and UR E27 for on-board systems, came in revised form in 2023 and apply through class rules to new contracts. Suppliers must document security zones, user access and software updates, and type-approve the controllers themselves. Douglas Insights calculates that most of the 5,695 ships in the mid-2025 order book will enter service with that documentation, a fixed cost that favours vendors with certified platforms. Exhaust cleaning controls, covered in the Marine Scrubber and Emissions Compliance Systems Market report, increasingly report through the same automation network for emissions records.
What if shipyard output stalls: integrated marine automation system scenarios to 2035?
The base case reaches USD 8.78 billion in 2035 on 3.35% volume and 3.80% price growth. For the integrated marine automation system market, a slower case lands at USD 7.44 billion and a faster case at USD 10.19 billion, set by shipyard output and remote-operation uptake.
The slower case cuts installation growth to 2.40% and price growth to 3.05%, assuming a post-2027 order drought and late cyber approvals; revenue then compounds at 5.52% a year. The faster case lifts installation growth to 4.30% and price growth to 4.40%, assuming the MASS Code trials turn into the mandatory 2032 code on schedule and owners refit for remote monitoring; revenue then compounds at 8.89%. A one-point lift in annual installation growth adds roughly USD 887 million to the 2035 value. Outside forecasts we read run from about 7.4% to 10.0% a year; our 7.28% sits just below that band because we count installed systems only and exclude stand-alone navigation sensors and lifetime service fees.
Douglas Exclusive: the Integrated Marine Automation System Newbuild Fit Register
The Newbuild Fit Register is a Douglas Insights model built from 18 inputs: 12 sourced statistics and 6 modelled package prices. The sourced statistics are 2025 completions and gross tonnage for five builder groups, the 112,500-ship fleet and the 5,695-ship order book; it is our estimate, not an official register.
| Builder group | Ships completed 2025 | Average GT | Modelled package (USD) | Newbuild value |
|---|---|---|---|---|
| China | 1,119 | 33,948 | 1,120,000 | USD 1.25 billion |
| Korea | 231 | 86,271 | 1,620,000 | USD 374.2 million |
| Japan | 358 | 28,336 | 1,050,000 | USD 375.9 million |
| European countries | 235 | 8,623 | 2,350,000 | USD 552.2 million |
| Other builders | 977 | 2,231 | 380,000 | USD 371.3 million |
The register finds that integrated marine automation system value tracks complexity, not tonnage. European yards built 2.8% of 2025 gross tonnage but generate 18.9% of newbuild automation value, USD 552.2 million, because ferries and cruise ships carry dense redundancy. Chinese yards built 52.6% of tonnage and generate 42.8% of newbuild value, USD 1.25 billion. The 977 small craft from other builders add 33.5% of ships but only 12.7% of value. Suppliers chasing volume go to China; suppliers chasing margin go to European passenger yards.
How the model counts 4,742 integrated marine automation system installations?
The integrated marine automation system model multiplies 4,742 installations by USD 916,900 to give USD 4.35 billion for 2025. Those are 2,920 newbuilds worth USD 2.93 billion plus 1,822 retrofits worth USD 1.42 billion, counted across five builder groups and the world fleet.
Inputs: 5 builder groups, 1 fleet count, 1 order book, 1 fleet-growth rate and 5 published market forecasts used only as a check. The volume leg of 3.35% adds 1.45, 1.10 and 0.80 points; the price leg of 3.80% reflects scope growth, giving (1.0335 x 1.0380) minus 1 = 7.28%. Cross-check one: two outside estimates for 2025, USD 5.40 billion and USD 6.64 billion, have a midpoint of USD 6.02 billion, and ours sits 27.8% below it because service fees and navigation sensors are excluded. Cross-check two: the three leaders estimated at 41.6% equal USD 1.81 billion, within the disclosed revenue of Kongsberg Maritime and the marine units of Wärtsilä and ABB. Five regions reconcile to USD 4.35 billion in 2025 and USD 8.78 billion in 2035 within USD 0.1 million.
How this report is built
- Every figure carries a confidence grade in the fact sheet above, and the working model ships with every licence.
- Five regional models sum to the global figure, with country tables in the Excel model.
- The next scheduled review of this study is April 2027.
- Licence holders receive it as a maintained tab in the Excel model.
Sources
- International Maritime Organization IMO adopts first global Code for autonomous ships (2026)
- Japan Ship Exporters' Association Current status of shipbuilding 2026 (world completions 2025) (2026)
- ClassNK IACS UR E26 and E27 (2024)
- Kongsberg Signing of demerger plan for the spin-off of Kongsberg Maritime (2025)
- ABB Orange Marine selects ABB integrated power, propulsion and automation system (2026)
- Valmet Finnlines selects Valmet's integrated automation systems (2026)
- Kongsberg Kongsberg annual report 2025 (2026)
- UK Department for Transport Shipping fleet statistics 2025 (2026)
Inside the 196-page report
01Executive summary12 sections
The market in one view
- 1.1Market snapshot, 2025 and 2035
- 1.1.1Market size, 2025
- 1.1.2Forecast, 2035
- 1.1.3Growth rate, 2026–2035
- 1.2Growth decomposition
- 1.2.1Volume growth (thousand installations)
- 1.2.2Value per unit growth
- 1.3Key findings
- 1.4Segment highlights
- 1.5Regional highlights
- 1.6Competitive highlights
- 1.7Douglas Insights verdict
02Scope and definitions18 sections
What an integrated automation system includes
- 2.1Market definition
- 2.2Inclusions and exclusions
- 2.2.1Systems covered
- 2.2.2Exclusions
- 2.2.3Units
- 2.3Segmentation
- 2.3.1By system
- 2.3.2By vessel type
- 2.3.3By autonomy level
- 2.3.4By fit
- 2.3.5By region
- 2.4Years considered
- 2.4.1Base year 2025
- 2.4.2Forecast 2026–2035
- 2.5Currency and units
- 2.5.1Value in USD million
- 2.5.2Volume in thousand installations
- 2.6Who this report is for
03Research methodology16 sections
Bottom-up: thousand installations × value per unit
- 3.1Bottom-up market model
- 3.1.1Volume base, 2025 (thousand installations)
- 3.1.2Value per unit
- 3.1.3Forecast legs to 2035
- 3.2Top-down cross-checks
- 3.3Data triangulation
- 3.4Sources
- 3.4.1Regulators and statistics offices
- 3.4.2Company filings and results
- 3.4.3Trade and industry bodies
- 3.4.48 primary sources cited
- 3.5Confidence grading
- 3.6Assumptions and limitations
- 3.6.1Inputs
- 3.6.2Arithmetic
- 3.6.3Reconciliation
04Segments by system3 sections
Alarm monitoring, power management, propulsion, bridge, cargo
- 4.1Shares
- 4.2Growth
- 4.3Scope trends
05Newbuild and retrofit3 sections
2,920 newbuilds and 1,822 retrofits
- 5.1Retrofit rate
- 5.2Package prices
- 5.3Outlook
06Demand drivers3 sections
Orderbooks, retrofits and remote operation
- 6.1Shipyard backlog
- 6.2Cyber retrofits
- 6.3MASS Code
07Restraints3 sections
Shipbuilding cycle and cyber approvals
- 7.1Order drought
- 7.2Type approval
- 7.3Crew skills
08Pricing3 sections
Package prices by builder and vessel
- 8.1Bands
- 8.2Retrofit pricing
- 8.3Service fees
09Vessel classes3 sections
Cargo, passenger, offshore and naval
- 9.1Installations
- 9.2Value
- 9.3Scope
10Autonomy levels3 sections
Partially automated to autonomous
- 10.1Remote centres
- 10.2MASS Code
- 10.32032 outlook
11Regulation and standards3 sections
SOLAS and IACS cyber rules
- 11.1Unattended machinery
- 11.2UR E26 and E27
- 11.3Class notations
12Market size and forecast, 2025–20355 sections
Global value, volume and value per unit
- 12.1Market value, 2025–2035
- 12.2Volume (thousand installations), 2025–2035
- 12.3Value per unit, 2025–2035
- 12.4Year-on-year growth
- 12.5Growth decomposition
13Integrated Marine Automation System market, by system16 sections
5 segments, value 2025–2035
- 13.1Overview and share, 2025 and 2035
- 13.2Machinery alarm and monitoring systems
- 13.2.1Market size and forecast, 2025–2035
- 13.2.2Growth outlook
- 13.3Power management systems
- 13.3.1Market size and forecast, 2025–2035
- 13.3.2Growth outlook
- 13.4Propulsion and thruster control
- 13.4.1Market size and forecast, 2025–2035
- 13.4.2Growth outlook
- 13.5Integrated bridge and navigation interfaces
- 13.5.1Market size and forecast, 2025–2035
- 13.5.2Growth outlook
- 13.6Cargo and ballast control
- 13.6.1Market size and forecast, 2025–2035
- 13.6.2Growth outlook
14Integrated Marine Automation System market, by vessel type13 sections
4 segments, value 2025–2035
- 14.1Overview and share, 2025 and 2035
- 14.2Commercial cargo ships
- 14.2.1Market size and forecast, 2025–2035
- 14.2.2Growth outlook
- 14.3Passenger ships and ferries
- 14.3.1Market size and forecast, 2025–2035
- 14.3.2Growth outlook
- 14.4Offshore support vessels
- 14.4.1Market size and forecast, 2025–2035
- 14.4.2Growth outlook
- 14.5Naval vessels
- 14.5.1Market size and forecast, 2025–2035
- 14.5.2Growth outlook
15Integrated Marine Automation System market, by autonomy level10 sections
3 segments, value 2025–2035
- 15.1Overview and share, 2025 and 2035
- 15.2Partially automated
- 15.2.1Market size and forecast, 2025–2035
- 15.2.2Growth outlook
- 15.3Remotely operated
- 15.3.1Market size and forecast, 2025–2035
- 15.3.2Growth outlook
- 15.4Autonomous
- 15.4.1Market size and forecast, 2025–2035
- 15.4.2Growth outlook
16Integrated Marine Automation System market, by fit7 sections
2 segments, value 2025–2035
- 16.1Overview and share, 2025 and 2035
- 16.2Newbuild
- 16.2.1Market size and forecast, 2025–2035
- 16.2.2Growth outlook
- 16.3Retrofit
- 16.3.1Market size and forecast, 2025–2035
- 16.3.2Growth outlook
17Regional analysis31 sections
5 regions
- 17.1Regional overview and share, 2025 and 2035
- 17.2Asia Pacific
- 17.2.1Market size and forecast, 2025–2035
- 17.2.2By system
- 17.2.3By vessel type
- 17.2.4By autonomy level
- 17.2.5By fit
- 17.3Europe
- 17.3.1Market size and forecast, 2025–2035
- 17.3.2By system
- 17.3.3By vessel type
- 17.3.4By autonomy level
- 17.3.5By fit
- 17.4North America
- 17.4.1Market size and forecast, 2025–2035
- 17.4.2By system
- 17.4.3By vessel type
- 17.4.4By autonomy level
- 17.4.5By fit
- 17.5Middle East and Africa
- 17.5.1Market size and forecast, 2025–2035
- 17.5.2By system
- 17.5.3By vessel type
- 17.5.4By autonomy level
- 17.5.5By fit
- 17.6Latin America
- 17.6.1Market size and forecast, 2025–2035
- 17.6.2By system
- 17.6.3By vessel type
- 17.6.4By autonomy level
- 17.6.5By fit
18Competitive landscape12 sections
8 companies profiled
- 18.1Market concentration
- 18.2Market share analysis, 2025
- 18.3Strategic moves: acquisitions, launches, contracts
- 18.4Company profilesEach profile: overview, products, financials where reported, position in this market, recent developments
- 18.4.1Platforms
- 18.4.2Contracts
- 18.4.3Kongsberg Maritime
- 18.4.4Wärtsilä
- 18.4.5ABB
- 18.4.6Valmet
- 18.4.7Praxis Automation Technology
- 18.4.8Norwegian Electric Systems
19Scenarios to 20355 sections
Slower, base and faster cases
- 19.1Slower case
- 19.2Base case case
- 19.3Faster case
- 19.4Sensitivity of the 2035 value
- 19.5Published forecasts compared
20Douglas Exclusive: the Newbuild Fit Register3 sections
Automation value by builder group
- 20.1Inputs
- 20.2Findings
- 20.3Implications
21Appendix5 sections
Data, sources and licence
- 21.1Data tables (Excel model)
- 21.2Sources (8)
- 21.3Abbreviations
- 21.4Change log and next review
- 21.5Licence and how to cite
TList of tables45
- Table 1Market value, 2025–2035 (USD million)
- Table 2Volume, 2025–2035 (thousand installations)
- Table 3Value per unit, 2025–2035
- Table 4Integrated Marine Automation System market by system, 2025–2035 (USD million)
- Table 5Machinery alarm and monitoring systems: market size, 2025–2035 (USD million)
- Table 6Power management systems: market size, 2025–2035 (USD million)
- Table 7Propulsion and thruster control: market size, 2025–2035 (USD million)
- Table 8Integrated bridge and navigation interfaces: market size, 2025–2035 (USD million)
- Table 9Cargo and ballast control: market size, 2025–2035 (USD million)
- Table 10Integrated Marine Automation System market by vessel type, 2025–2035 (USD million)
- Table 11Commercial cargo ships: market size, 2025–2035 (USD million)
- Table 12Passenger ships and ferries: market size, 2025–2035 (USD million)
- Table 13Offshore support vessels: market size, 2025–2035 (USD million)
- Table 14Naval vessels: market size, 2025–2035 (USD million)
- Table 15Integrated Marine Automation System market by autonomy level, 2025–2035 (USD million)
- Table 16Partially automated: market size, 2025–2035 (USD million)
- Table 17Remotely operated: market size, 2025–2035 (USD million)
- Table 18Autonomous: market size, 2025–2035 (USD million)
- Table 19Integrated Marine Automation System market by fit, 2025–2035 (USD million)
- Table 20Newbuild: market size, 2025–2035 (USD million)
- Table 21Retrofit: market size, 2025–2035 (USD million)
- Table 22Integrated Marine Automation System market by region, 2025–2035 (USD million)
- Table 23Asia Pacific: market by system, 2025–2035 (USD million)
- Table 24Asia Pacific: market by vessel type, 2025–2035 (USD million)
- Table 25Asia Pacific: market by autonomy level, 2025–2035 (USD million)
- Table 26Asia Pacific: market by fit, 2025–2035 (USD million)
- Table 27Europe: market by system, 2025–2035 (USD million)
- Table 28Europe: market by vessel type, 2025–2035 (USD million)
- Table 29Europe: market by autonomy level, 2025–2035 (USD million)
- Table 30Europe: market by fit, 2025–2035 (USD million)
- Table 31North America: market by system, 2025–2035 (USD million)
- Table 32North America: market by vessel type, 2025–2035 (USD million)
- Table 33North America: market by autonomy level, 2025–2035 (USD million)
- Table 34North America: market by fit, 2025–2035 (USD million)
- Table 35Middle East and Africa: market by system, 2025–2035 (USD million)
- Table 36Middle East and Africa: market by vessel type, 2025–2035 (USD million)
- Table 37Middle East and Africa: market by autonomy level, 2025–2035 (USD million)
- Table 38Middle East and Africa: market by fit, 2025–2035 (USD million)
- Table 39Latin America: market by system, 2025–2035 (USD million)
- Table 40Latin America: market by vessel type, 2025–2035 (USD million)
- Table 41Latin America: market by autonomy level, 2025–2035 (USD million)
- Table 42Latin America: market by fit, 2025–2035 (USD million)
- Table 43Company market shares, 2025
- Table 44Scenario values, 2035
- Table 45Sources and confidence grades by figure
FList of figures10
- Figure 1Market value, 2025–2035
- Figure 2Growth decomposition, 2026–2035
- Figure 3Share by system, 2025 and 2035
- Figure 4Share by vessel type, 2025 and 2035
- Figure 5Share by autonomy level, 2025 and 2035
- Figure 6Share by fit, 2025 and 2035
- Figure 7Share by region, 2025 and 2035
- Figure 8Growth by region, 2026–2035
- Figure 9Market concentration, 2025
- Figure 10Scenario paths to 2035
Questions buyers ask
What did the integrated marine automation system market total in 2025, and how was it built?
USD 4.35 billion in 2025, from 4,742 installations at an average USD 916,900 each: 2,920 newbuild packages and 1,822 retrofits on the existing fleet.
Where will the integrated marine automation system market stand in 2035?
USD 8.78 billion by 2035 in the base case, a 7.28% revenue CAGR made of 3.35% installation growth and 3.80% price growth from wider scope.
Why do power management systems outgrow alarm and monitoring packages?
9.46% a year for power management, against 6.12% for alarm and monitoring, because battery hybrids and shore-power plugs need load-sharing logic that diesel-only ships never bought.
Which shipbuilding countries buy the most marine automation?
52.3% of 2025 value sits in Asia Pacific, where China, Korea and Japan built 1,708 of the 2,920 ships completed in 2025; the region grows 8.21% a year.
How concentrated is the supplier base for ship automation platforms?
41.6% of 2025 value goes to Kongsberg Maritime, Wärtsilä and ABB in Douglas Insights estimates, with Kongsberg Maritime alone at an estimated 19.3%.
What does a shipboard integrated automation package cost?
USD 916,900 on average in 2025, with bands from USD 0.2 million on small craft to USD 6 million on cruise ships and naval vessels.
Does the IMO MASS Code change automation specifications now?
1 July 2026 is when the non-mandatory MASS Code took effect, and remotely operated functions rise from 14.9% to 24.6% of value by 2035 in our model.
How sensitive is the 2035 forecast to shipyard output?
USD 7.44 billion in the slower case and USD 10.19 billion in the faster case; a one-point change in installation growth shifts 2035 by roughly USD 887 million.
Research & citation
This report was researched, written and reviewed by the Douglas Insights Research Desk under the Douglas Insights editorial standards. Material errors are logged in the corrections log. No section is sponsored.
Douglas Insights Inc (2026). Integrated Marine Automation System Market. Report DI-AT-10644, October 2026. https://www.douglasinsights.com/integrated-marine-automation-system-market/