Welcome to the Industrial Automation website!

NameDescriptionContent
HONG  KANG
E-mail  
Password  
  
Forgot password?
  Register
当前位置:

Research on Marine carrier equipment technology and industrial development

来源: | 作者:佚名 | 发布时间 :2023-12-25 | 399 次浏览: | Share:

First, the development needs of the world's ocean carrying equipment

(1) Market demand

In the context of uncertain global economic growth, the growth rate of global import and export trade shows a downward trend, and the global seaborne trade volume is difficult to increase significantly (see Figure 1). At present, global energy consumption is dominated by traditional energy sources such as oil and natural gas, but the growth rate of demand will gradually slow down. In the absence of extreme conditions, it is difficult for the new demand for Marine transport equipment to return to the peak demand of 2008. From the supply side, after reaching its peak in 2012, Marine carrying equipment production capacity has been in a shrinking adjustment stage affected by the market environment. According to Clarkson database statistics, by 2019, global active production capacity has fallen to about 3.5× 107 modified gross tons (cgt), and it is difficult for major shipbuilding countries to further reduce production capacity in the future. In this context, the market competition among major shipbuilding countries will become more intense.

(2) Demand for Marine scientific research and resource development

The deep sea is a treasure house of science and resources that human beings have not fully understood. The sustainable development of the world society and economy depends on the scientific research and resource exploitation of the ocean. At present, the understanding and exploitation of the deep-sea area with a depth of more than 1000 m, which accounts for 90% of the ocean area, is still in the initial stage. At present, the breakthrough and development of cutting-edge technologies of deep-sea carrier equipment used for deep-sea oil and gas resources development, deep-sea mineral resources development, deep-sea biological resources research and development, which have a significant impact on the Marine environment, Marine science, Marine economy and Marine security situation, has become an important demand point.

(3) The development needs of green and intelligent technologies

In the future, in the process of design, construction, operation and dismantling of Marine carrying equipment, through the application of advanced technology, on the basis of meeting the functional and performance requirements, it is necessary to achieve the goal of reducing resource and energy consumption, reducing or eliminating environmental pollution. At the same time, with the acceleration of the integration of new generation information technology and traditional industries, the intelligence of Marine carrying equipment will become a hot development spot. In the future, smart ships will integrate sensors, big data analysis, communication technology, advanced materials and other technologies to achieve intelligent control of all ship functions and integrated information interconnection of ship, sea, land, air and space in navigation control, energy and power system management, auxiliary engine operation monitoring, safety monitoring, energy saving and environmental protection monitoring, vibration and noise monitoring, cargo management and other aspects. And have the perception ability, evaluation and analysis ability, decision-making ability, learning and growth ability.

Ii. Technology and industrial structure of the world's Marine carrier equipment

(1) The development status of the world's Marine transport equipment industry

1. Higher education of shipbuilding and Marine engineering

Due to the gradual shift of the center of gravity of the shipbuilding and ocean engineering manufacturing industry to Asia, the scale of higher education in the field of shipbuilding and ocean engineering in Europe, the United States and other countries and regions has been greatly reduced compared with the 1980s, and some famous universities have even canceled the department of shipbuilding and ocean engineering or related majors. In spite of this, the higher education sector in Europe, the United States and other countries and regions is still an important pioneering force for new scientific and technological research in shipbuilding and ocean engineering. The teaching and scientific research content is updated quickly, and the close cooperation with international academic and technical standards bodies has made it active and influential in the international arena and market. Our country still has a certain gap in this respect and needs to further improve its influence.

2. Research field of shipbuilding and ocean engineering

Over the past 20 years, although the scale of ship assembly and construction industry in Europe, the United States and other countries and regions has been greatly reduced, and the number of researchers with overall equipment technology has also been reduced, its research results still have an important impact on the development of global Marine transport equipment technology. It mainly relies on technology accumulation and intellectual property foundation, high welfare benefits and flexible research mechanism, traditional market development and service capabilities, and advantages of technical talents in the field of ships; At the same time, it carries out the development and service business of most of the global ship design, evaluation and digital manufacturing software, has the core technology of high-end ships and supporting equipment, and plays a leading role in the international maritime Organization, the International Federation of Classification Societies, the International Organization for Standardization and other international organizations in the Marine equipment and shipping industry. It is worth noting that in some subdivided equipment fields, Europe, the United States and other countries and regions have many small and medium-sized enterprises with a history of more than 100 years, some technologies have a global monopoly position, and scientific research strength can not be underestimated.

3. Overall design and final assembly manufacturing

According to Clarkson database statistics (see Table 1), from 2014 to 2019, among the ships with design information in the world, the share of ships designed by Chinese ship design institutions accounted for about 30% to 35%, Japan accounted for about 20% to 25%, South Korea accounted for about 10% to 20%, and Europe accounted for about 10% to 15%. Specifically, in terms of ship design, Chinese and Japanese ship design institutions focus on the design of bulk carriers, Korean design institutions are more involved in the design of liquefied gas vessels, and European design institutions are focused on the design of luxury cruise ships. From the perspective of technical content, European countries occupy a dominant or monopoly position in the design of high-end ships (such as large cruise ships, ice vessels, deep-sea mining vessels, liquefied natural gas (LNG) carriers, nuclear-powered surface vessels, deep-sea fishing and processing vessels, etc.), and occupy a leading position in the design and development of green and intelligent ships; Japan has advantages in the optimization and weight reduction design of the three main ship types, focusing on the development of new concepts, green and intelligent ship design technology.

The global ship assembly manufacturing market presents a three-way pattern of China, South Korea and Japan. Since the global financial crisis in 2008, China and South Korea have been engaged in fierce competition for the main market share of global ship final assembly manufacturing. Japan has adopted a cautious industrial development strategy, and its global ship final assembly manufacturing market share has increased compared with China and South Korea. In terms of final assembly and construction technology, Japan and South Korea represent the current world advanced level, using the design-evaluation - manufacturing integrated information system, and gradually improve the level of process intelligence; The average production efficiency of ship assembly and construction in Japan and South Korea is more than 2 times higher than that of Chinese shipyards.

4. Information and communication navigation

The main competition pattern of the world's ship communication and navigation equipment is composed of Europe, the United States and Japan, and the mainstream ocean transport ships are mostly equipped with European and American integrated systems. These ship communication navigation equipment manufacturers have a perfect global service network, monopolizing the global communication navigation product market. At the same time, foreign enterprises attach importance to the integration, standardization and intelligence of data resources of information and communication navigation equipment and its upstream and downstream products.

5. Power and supporting electromechanical field

The world high-end diesel engine market is almost monopolized by developed countries. According to brand share statistics in Clarkson database, German Man Group has more than 80% of the global low-speed diesel engine market share; Wartsila of Finland, Caterpillar of the United States, Hyundai Group of South Korea, Daihatsu Industrial Co., Ltd. of Japan, and Yanma Co., Ltd. of Japan account for more than 90% of the global market share of medium-speed diesel engines. In the field of Marine nuclear power, the United States and Russia are typical representatives, with advanced research and development systems and industrial systems, forming a complete lineage of Marine nuclear power equipment. In terms of Marine special propulsion equipment, foreign countries have also formed high-power, standardized and serialized products to meet the market needs of various types of ships. At the same time, foreign enterprises also occupy a dominant position in the field of ship auxiliary machinery such as deck machinery and cabin machinery.

(2) Advanced cutting-edge technologies for the world's Marine transport equipment

1. Current advanced technology

(1) The application of LNG fuel technology in ocean-going ships

For some time to come, the main alternative fuel for ships is LNG. Natural gas reserves are large, and with the continuous construction of infrastructure, natural gas is becoming more and more available. At present, among the existing LNG fuel ships, ferries and offshore ships account for the majority, and the proportion of container ships, oil tankers and chemical tankers is catching up, such as the international development and design of 20,000 TEU LNG powered container ships has made great progress.

(2) Solar and wind energy technologies for large ships

The shipping industry is exploring the application of renewable energy to power the fleet, and the relevant technologies have entered the trial and testing phase. For example, Dalian Shipbuilding Industry Group Co., Ltd. built the world's first 3.08× 105 DWT ultra-large crude oil vessel equipped with sail equipment for China Merchants Energy Transportation Co., LTD., which has been delivered and put into operation and completed several voyage tasks. The most potential application direction in the future is to reduce fuel consumption as a supplement to existing energy sources.

(3) Polar ship technology

With the increasing strategic position of the Arctic region, maritime transport in the Arctic region has attracted widespread attention, and the reduction of ice caused by global warming has also made Arctic navigation more feasible. In addition, the growing tourism and fishing industries in the polar regions have created new demands for polar ships. Polar ship hull structure design, monitoring system, emergency response system, equipment reliability under changing environment are the focus of subsequent research and development.

(4) Ship noise control technology

Ship noise may affect the health of Marine life, crew and passengers. The Ship Noise Levels Code issued by the International Maritime Organization provides a reference standard for the prevention of potentially dangerous noise levels on board ships, and provides a reference standard for an acceptable environment for crew members. In addition, the International Organization for Standardization is promoting the development of international standards for ship noise. At present, the research on ship noise generation mechanism, forecasting method and control method is still a hot spot.

(5) Advanced material technology

Materials are the basis of ocean carrying equipment. Advanced new materials make ocean carrying equipment have better performance. At present, the advanced materials in the field of Marine carrying equipment include: ultra-large container ships high-strength crack stop thick steel plate, Marine low-temperature steel and polar low-temperature materials, Marine structural acoustic composite materials, drag reduction anti-fouling coatings, composite materials and low-temperature materials.

2. Research cutting-edge technology

The cutting-edge technology of Marine carrier equipment research is mainly related to the intelligence of Marine carrier equipment, aiming to promote the intelligence of equipment and promote the safe and efficient development of the shipping industry.

(1) Intelligent ship technology

The field of intelligent ship technology mainly includes: intelligent navigation control technology, intelligent management technology of energy and power system, intelligent monitoring technology of auxiliary engine safety operation, intelligent monitoring technology of whole ship safety, intelligent monitoring technology of energy saving and environmental protection, intelligent monitoring technology of vibration and noise, intelligent cargo management technology, intelligent ship integrated information system technology.

(2) Additive manufacturing technology

Additive manufacturing technology can not only improve the design of mechanical parts, increase their efficiency and longevity, but also allow related spare parts to be produced on site in different ports around the world. This will improve the company's ability to respond to market demand, reduce maintenance time, and help improve the efficiency of ship operations. Additive manufacturing technology has been applied in the field of rapid prototyping and is gradually being integrated into traditional manufacturing industries such as automotive and aircraft manufacturing. The Navy has already begun testing the technology on some ships to assess its potential for spare parts production.

(3) Advanced sensor technology

(4) Advanced communication technology

The integration of fifth-generation mobile communications (5G), wireless Internet access (Wi-Fi), a new generation of satellites and traditional radio communication networks will make the long-distance transmission of Marine information economical and convenient. Managers or users can access audio, high-definition video, three-dimensional (3D) video in real time in the ship's recording equipment, reducing the need for actual on-board investigations.

3. Future disruptive technologies

Hydrogen fuel power technology is a representative of disruptive technology in the world's ocean transport equipment frontier technology. With true zero emissions, the International Energy Agency (IEA) sees hydrogen as a fuel option for meeting the IMO's 2050 carbon reduction targets for the shipping sector. If the hydrogen fuel power technology can be mature and widely used, it is expected to reshape the form of the Marine transport equipment industry, and have a profound impact on the design, final assembly, supporting and service of Marine transport equipment. In recent years, more and more shipyards, energy companies, and power system suppliers have begun to accelerate the research and development of hydrogen fuel-powered ships, and substantial progress has been made. There are already several ship models powered by hydrogen fuel cells, and many more large-scale projects are under development.

Third, the status quo and problems of China's Marine carrying equipment scientific and technological capabilities and industrial structure

After years of development, the scale of China's Marine carrying equipment industry continues to grow. From January to November 2019, China has 1,052 shipbuilding industry enterprises above designated size, and the main business income is about 394.77 billion yuan. China's Marine transport equipment industry chain is relatively complete, covering the whole chain of research and development design, final assembly and construction, power and supporting, and service, which has strongly supported the development of Marine industry.

(1) The field of higher education of shipbuilding and Marine engineering

In the past 40 years, the scale of higher education of shipbuilding and Marine engineering in China has continued to expand. In the 1970s, there were only 9 colleges and universities engaged in teaching in this field, while at the beginning of the 21st century, there were more than 40 colleges and universities engaged in teaching in this field, and the total number of teachers and students in this field exceeded the sum of other countries in the world. China has trained more than 50% of the world's shipbuilding talents. At the same time, some institutions of higher learning in China have built large ship and ocean engineering test facilities with international advanced level.

The problems in the field of higher education of Marine and ocean engineering in China are as follows: emphasis is placed on the teaching of the overall technology of Marine and ocean engineering, and relatively little attention is paid to the supporting technology, intelligent technology, new material technology, and basic device technology of Marine exploration and perception in the aspects of Marine equipment power, auxiliary machinery, observation and navigation, comprehensive information, etc. Students have fewer internship opportunities and weak engineering concepts.

(2) Research field of shipbuilding and ocean engineering

China's ship and ocean engineering equipment research team is huge, with research and design institutes and shipyards from enterprises as the core, supported by universities and colleges, forming a relatively complete scientific and technological research and development system with professional configuration, serving the design and manufacture of surface and underwater ships and ocean engineering equipment as a whole and supporting systems. Compared with the research level of ship and ocean engineering in the world, the research level of our country in this field is in the situation of minority running, majority running and partial leading.

The main problems in the research field of ship and ocean engineering in China are: insufficient research reserve of basic technology, such as the lack of basic technology research on the mechanism and optimization of basic key units such as core parts and components, special materials and special processes, and detection methods; Energy and power system intelligent management, energy conservation and environmental protection monitoring and other equipment intelligent, green common technology research is relatively lagging.

(3) Ship overall design and final assembly manufacturing field

In terms of mainstream ship types, China has a full range of ship type research and development, design, construction capabilities, to achieve serialization, mass production; In terms of high-tech and special ships, the company basically has the ability to design and build ships such as large LNG carriers, super large fully cooled LNG carriers, and auto ro-ro ships. Since 2010, China's final shipbuilding capacity has ranked first in the world, and the annual shipbuilding completion volume accounts for 35% to 44% of the total world market (measured by deadweight tons). At the same time, China has also made good progress in the research of ship greening and intelligent technology.


  • GE IS230PCAAH1B Core Analog I/O Module
  • GE IS230PCAAH1A core analog I/O module
  • Alstom vajh13yf1001aba - Automatic Trip Relay 220-250 V
  • ALSTOM Servo Inverter Type:ALSPA MV 1007-IT - - 3.0 kW
  • ALSTOM Cegelec Interface Modnet 1 / MB+ Fbk Mbp S1/S - Interface Module
  • Alstom Input / Output Card I/O Module SA44647.A - Module
  • Alstom Plug-in card Input/Output module SA44650.C - Module
  • ALSTOM Adjustment Module Keypad Alspa MV1000 - Keypad
  • Alstom Operating module Keypad Alspa MV1000 - Keypad
  • Alstom Plug-In Input/Output Module Sa 45629.B - Module
  • ALSTOM Adjustment Module Keyboard Alspa MV1000 - Keyboard
  • ALSTOM Control Set - 15 V 029.069642/26472/1011 - Voltage regulator
  • Alstom Input/Output Card Module SA44650.C - Module
  • Alstom Input / Output Card I/O Module - Module
  • Alsthom Alstom Plug-In Input/Output Module SA41630 B - Module
  • ALSTOM Servo Inverter Type: ALSPA MV 1007-IT - - 3.0 kW
  • Alstom Plug-In Input/Output I/O Module SA44647.A - Module
  • Alstom Plug-In Input/Output Module Sa 45629.B - Module
  • Alstom Plug-in card Input/Output module SA46623.B - Module
  • ALSTOM Control Module Keyboard Alspa MV1000 - Keyboard
  • Alstom Plug-In Input/Output Module SA46623.B - Module
  • Alstom Plug-In Input/Output Module SA44650.C - Module
  • Alstom Plug-In Input/Output Module SA43610.E - Module
  • Alstom Insertion Card Input / Output Module SA43610.E - Module
  • Alsthom Alstom Plug-In Input/Output Module SA41630 B - Module
  • Alstom Plug-In Input/Output I/O Module - Module
  • Alstom Plug-In Input/Output Module SA46623.B - Module
  • Alstom Plug-in card Input/Output I/O module SA44647.A - Module
  • Alstom Plug-in card Input/Output I/O module SA44647.A - Module
  • Alstom Plug-in card Input/Output module SA 45629.B - Module
  • ALSTOM Alspa VF Inverter Type : VF 4004b - - 1.5 Kw
  • Alstom Plug-In Input/Output Module SA46617.B - Module
  • Alstom PS 431 - Control Unit
  • Alstom Plug-In Input/Output Module Sa 46624.A - Module
  • Alstom Plug-In Input/Output Module SA44650.C - Module
  • Alstom Plug-In Input/Output Module SA43610.E - Module
  • ALSTOM Alspa MV1000 Frequency Type : Alspa MV1032 - - 15 Kw
  • Alstom Input/Output Card Module SA46617.B - Module
  • Alstom Input/Output Card Module Sa 45629.B - Module
  • Alstom Input/Output Card Module SA46623.B - Module
  • ALSTOM Servo-Converter Type : ALSPA MV 1007-IT - - 3.0 Kw
  • ALSTOM Frequency Type : ALSPA MD2000 - 43-400 (49-460)
  • ALSTOM Servo-Converter Type : ALSPA MV 1007 - - 3.0kW
  • Alstom PS 431 - Control
  • ALSTOM Alspa Cegelec Guide Value Transmitter 029.087.176/98N115099109 - Transmitter
  • Alstom Input/Output Card Module Sa 46624.A - Module
  • ALSTOM Control Set - 15 V 029.069642/26472/1011 - Voltage regulator
  • ALSTOM Alspa Module Control Set 029.111.890/27347/1018 - Module
  • ALSTOM Alspa Module Control Set 029.063.255/25443/1044 - Module
  • ALSTOM Alspa Cegelec Module Control Set 029.063.292/25943/1008 - Module
  • ALSTOM Microverter D 4-8/500/029.130.005 - Inverter
  • Alstom ISTAT M233 M233X2GUYECAL0A - Measurement unit M233X2GUYECAL0A NEW
  • ALSTOM Alspa Cegelec Guide Value Transmitter 029.087.176/98N115099109 - Transmitter
  • Alstom Input/Output Module SA 46624.A - Plug-in card
  • ALSTOM Cegelec Interface Modnet 1 / MB + Fbk - Mbp S1/S
  • ALSTOM MAE 00-11 - 8 Channel isolated analog i/o termination panel LC11-13 24118b
  • Alstom MMLG01 137945N - Test block electric panel 715209M T&D protection and control
  • ALSTOM Mae 00-11 - Channel Isolated Analog I/O Terminal Panel LC11-13 24118b Al
  • CONVERTEAM S20X4262/50 / S20X426250 - Module
  • CONVERTEAM MV530A4C1A / MV530A4C1A - Inverter
  • CONVERTEAM C100/5302 / C1005302 - Module
  • CONVERTEAM 20X4355B1L / 20X4355B1L - (new without box)
  • CONVERTEAM GM0020002 / GM0020002 - Module
  • CONVERTEAM P111-6052 / P1116052 - Module
  • Alstom PS 431 - Controller
  • ALSTOM Type : Alspa BC 32 - Brake Chopper Unit
  • ALSTOM Alspa MV500 SE23400075/MV502A4C1A - - 0.75kW Inverter
  • Alstom M30-Tx200 DIN931 - Hexagon screw stamped 8A B screw GE Alstom SW 46
  • Alstom Sa 46624.A - Plug-In Input/Output Module
  • ALSTOM Adjustment Module Keyboard Alspa MV1000 - Keyboard
  • Alstom PA20397/2186-03-H01 - Circuit Board
  • Alstom KBCH12001H12MEL 228633J - Relay Differential KBCH120
  • Alstom MMLG01 137945N - TestBlock Electric Panel 715209M T&D Protection & Control
  • Alstom KBCH12001H12MEL 228633J - Differential Relay KBCH120
  • Alstom MMLG01 137945N - Test Block Electrical Panel 715209M T&d Protection &
  • ALSTOM Mae 00-11 - 8 Channel Isolated Analog I/O Terminal Panel LC11-13 24118b
  • Alstom KBCH12001H12MEL 228633J - Differential Relay KBCH120 and extended warranty
  • Alstom MMLG01 137945N - Test Block Electrical Panel 715209M T & D Protection & De
  • Alstom DFI-110-0340F - DFI1100340F Diagnostic Flame Indicator
  • KCGG142 KCGG14201D20EEA - 287362J
  • ALSTOM MAE 00-11 - Channel isolated analog i/o termination panel LC11-13 24118b Al
  • KCGG122 KCGG12201DEED - 463055L and extended warranty
  • Alstom MMLG01 137945N - Test Block Electrical Panel T&D Protection & Control
  • Alstom 3FAFA5100A - Voltage Sensor TN7 112 003 Alstom T&D Protection & Control
  • Used ALSTOM PIB100 F 3BEB0169 - Board
  • Alstom Keypad - Alspa MV 1000
  • Alstom MMLG01 137945N - Test Block Electrical Panel 715209M T & D Protection &
  • ALSTOM PS441 - Overcurrent protection - Used
  • Alstom Power 2506305 - Circuit Board
  • ALSTOM PS431 - CONTROL UNIT
  • ALSTOM MV502S2B1A - 1 pc X Frequency Drive Alspa MV500
  • Alstom 3VAFS5500A - Voltage Sensor TN7105 002 Alstom T&D Protection & Control
  • ALSTOM MV507A2D1A - 1 pc X Frequency Drive Alspa MV500
  • KCGG KCGG12201L20EED - 655002M and extended warranty
  • ALSTOM TRVP059753000 - AGC3X-007 BLOCK ENCODER TRVP05975400
  • KCGG KCGG14202l20EEB - 654833M and extended warranty
  • Alstom 029 204 538 - cegelec Interface RS422/RS232 Alspa MV 1000
  • ALSTOM PIB100 F - 3BEB0169 Board
  • CONVERTEAM 8321-4002 / 83214002 - (new with box)
  • CONVERTEAM MVAJ14D1GA0774A / MVAJ14D1GA0774A - Relay
  • CONVERTEAM 8178-4002 / 81784002 - (new with box)
  • CONVERTEAM QTWIE2-VD4A / QTWIE2VD4A - (new with box)
  • CONVERTEAM A48DI-40DX-B7/95 / A48DI40DXB795 - Meter
  • CONVERTEAM V96LC/0-400RPM / V96LC0400RPM - Meter
  • CONVERTEAM A72DI-5-40X4/95 / A72DI540X495 - Meter
  • CONVERTEAM 8321-4002 / 83214002 - Module
  • CONVERTEAM 029.081-942 / 029081942 - Module
  • CONVERTEAM V96LC/0-600RPM / V96LC0600RPM - Meter
  • CONVERTEAM 20X4524B1L / 20X4524B1L - Module
  • CONVERTEAM EGS3C-ST11001 / EGS3CST11001 - Module
  • CONVERTEAM S8503-4001 / S85034001 - Module
  • CONVERTEAM MVAX12B1DA0752A / MVAX12B1DA0752A - Relay
  • CONVERTEAM 11P408ND8268/7 / 11P408ND82687 - (new without box)
  • CONVERTEAM MVAJ26L1BB0502A / MVAJ26L1BB0502A - Relay
  • CONVERTEAM C100/5120 / C1005120 - Module
  • CONVERTEAM D-984-0578 / D9840578 - Board
  • CONVERTEAM GDS1017-4001 / GDS10174001 - Enhancement Card
  • CONVERTEAM MBC101F1AD0761A / MBC101F1AD0761A - Module
  • CONVERTEAM GDS1006-4001 / GDS10064001 - Keypad
  • CONVERTEAM 25X8521/10 / 25X852110 - Module
  • CONVERTEAM VSELC1011A1AB / VSELC1011A1AB - (new without box)
  • CONVERTEAM RTS-13060102-R / RTS13060102R - Relay
  • CONVERTEAM LGPG-11101P55LEF / LGPG11101P55LEF - Relay
  • CONVERTEAM 203-399 / 203399 - Module
  • CONVERTEAM MV516A4C1 / MV516A4C1 - Inverter
  • CONVERTEAM SW867577-007 / SW867577007 - Module
  • CONVERTEAM MCGG22D1CD0503D / MCGG22D1CD0503D - Relay
  • CONVERTEAM MV506A4C1A / MV506A4C1A - Inverter