
Subject | Engineering
Introduction of Ocean and Maritime Engineering
- Maritime civilization and History and Development of Ships
- Naval Architects and Ocean Engineering, Energy-saving technology, Autonomous navigation technology
- Digital twin technology, Oocean monitoring technology
- Design and Production, Maritime logistics digital transformation
- Marine governance
The course will provide an overview of the wide range of education and expertise in the oceans and maritime field, which is closely related to the international community, mainly Asia (especially the ASEAN countries, with Indonesia at the core, which is experiencing remarkable economic development and is strengthening its oceans and maritime sector as a national policy), using ships as the main subject, which carry more than 99% of Japan's trade cargo volume..
- Learn about maritime civilization, culture, and history from ancient times to the present, and consider ships of the near future.
- Learn how ships run safely and how they move, and consider the possibility of energy-saving and automatic operation of ships.
- Learn about the structure, vibration, strength, and safety of ships, and study technologies for reducing the weight of ship hull structures, monitoring, and simulating structural response.
- Learn the basic flow of basic design, performance design, hull design, and outfitting design of a ship, and learn about the recent Digital transformation of manufacturing sites, such as streamlining of design and automation of welding processes.
- Learn about ship operation, navigation, and information and communication, which are important to realize safe and efficient navigation at sea.
- Learn about the trade and industrial structure of maritime transport, and acquire knowledge of the Digital transformation of logistics through the introduction of IoT technology.
- Learn about maritime rescue, preservation of the maritime environment, and ensuring public safety and maritime traffic safety at sea.
- Learn about the latest technologies for improving the safety, efficiency, and performance of maritime transportation mobility.
- Learn technology for the effective utilization of marine resources and marine space, and for the conservation and maintenance of the marine environment.
- Learn how to acquire, analyze, and forecast oceanographic information at various scales.
- Learn the relationship between the marine transport and shipbuilding industries and the financial industry.
- Consider maritime governance and world peace in order to maintain, manage, and build a safe and secure maritime transportation network in Asia (especially in ASEAN countries) and the world.
Content/学習内容
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Introduction to the Basics and Mechanisms of Ships 1
- Technology to move a ship
- Technology to strengthen a ship
- How to build a ship
- Technology to operate a ship
This lecture will provide an overview of the basics of the ship that supports our daily lives. Specifically, it will explain “how to keep a ship afloat”, “how a ship rocks and returns to its original position”, “how to move a ship”, “how to steer a ship”, “how to build a ship”, and “the conditions (weather and sea conditions) in which to operate a ship”.
Videos
/学習動画
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Introduction to the Basics and Mechanisms of Ships 1-1
In this lecture, students learn about “Introduction to the Basics and Mechanisms of Ships 1” through three parts. This is the first part in that series.
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Introduction to the Basics and Mechanisms of Ships 1-2
In this lecture, students learn about “Introduction to the Basics and Mechanisms of Ships 1” through three parts. This is the second part in that series.
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Introduction to the Basics and Mechanisms of Ships 1-3
In this lecture, students learn about “Introduction to the Basics and Mechanisms of Ships 1” through three parts. This is the third part in that series.
Lecturers
/講師
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MUTSUDA Hidemi
Professor, School of Engineering, Hiroshima University
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Introduction to the Basics and Mechanisms of Ships 2
- Buoyancy Support
- Fluid Resistance
- Structural Strengthen
- Experimental Equipment Used in Naval Architect and Marine Engineering
This lecture will provide an overview of the practical content related to this course. Specifically, it will cover “transport efficiency”, “three support methods”, “square-cube law”, “benefits of buoyant support”, “ways to reduce resistance acting on ships”, “ways to strengthen ships” and “educational and research facilities for learning about ships.”
Videos
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Introduction to the Basics and Mechanisms of Ships 2-1
In this lecture, students learn about “Introduction to the Basics and Mechanisms of Ships 2” through three parts. This is the first part in that series.
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Introduction to the Basics and Mechanisms of Ships 2-2
In this lecture, students learn about “Introduction to the Basics and Mechanisms of Ships 2” through three parts. This is the second part in that series.
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Introduction to the Basics and Mechanisms of Ships 2-3
In this lecture, students learn about “Introduction to the Basics and Mechanisms of Ships 2” through three parts. This is the third part in that series.
Lecturers
/講師
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MUTSUDA Hidemi
Professor, School of Engineering, Hiroshima University
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Ship Resistance and Propulsion, and energy savings 1
- Ship Resistance
- Friction Resistance
- Viscous Pressure Resistance
- Wavemaking Resistance
This lecture will introduce the resistance and propulsion performance of ships and energy-saving technologies.
In this first part 1, resistance forces acting on a ship are classified according to the physical phenomena that cause them, and each characteristics are discussed.Videos
/学習動画
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Fluid Force and Ship Resistance
In this part, students learn about “Fluid Force and Ship Resistance”.
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Friction Resistance and Viscous Pressure Resistance
In this part, students learn about “Friction Resistance and Viscous Pressure Resistance”.
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Wavemaking Resistance and Other Resistances
In this part, students learn about “Wavemaking Resistance and Other Resistances”.
Lecturers
/講師
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NAKASHIMA Takuji
Associate Professor, School of Engineering, Hiroshima University
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Ship Resistance and Propulsion, and energy savings 2
- Hull-Propeller Interaction
- Self-Propulsion Parameters
- Energy-Saving
- Resisitance Reduction
In this part 2, the mechanism of propeller propulsion, which generates the propulsive force of a ship, and the interaction between the hull and propeller, which significantly affects the propulsion performance, will be discussed. Also, energy-saving technologies to reduce energy consumption of a ship will be introduced, including technologies related to improve the resistance performance introduced in Part 1.
Videos
/学習動画
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Propeller Propulsion
In this part, students learn about “Propeller Propulsion”.
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Interaction between Ship Hull and Propeller
In this part, students learn about “Interaction between Ship Hull and Propeller”.
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Energy -Saving Technologies for Ships
In this part, students learn about “Energy -Saving Technologies for Ships”.
Lecturers
/講師
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NAKASHIMA Takuji
Associate Professor, School of Engineering, Hiroshima University
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Basics of Ship Motions and Autonomous Navigation Initiatives 1
- Course-keeping ability
- Stability
- Motion in waves
- Restricted water
First, the characteristics of the maneuvering motion of a ship and the IMO standards are explained. Next, the ship’s stability, the motion in waves (risk of capsizing), added resistance and drifting motion are explained. Finally, the phenomena that ships encounter when navigating in shallow and narrow water such as harbor or canal are introduced.
Videos
/学習動画
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Ship maneuvering motions
In this part, students learn about “Ship maneuvering motions”.
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Ship motions in waves
In this part, students learn about “Ship motions in waves”.
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Phenomena encountered by ship in restricted water
In this part, students learn about “Phenomena encountered by ship in restricted water”.
Lecturers
/講師
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SANO Masaaki
Associate Professor, School of Engineering, Hiroshima University
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Basics of Ship Motions and Autonomous Navigation Initiatives 2
- Scaled model ship
- Significance of MASS
- Possibility of MASS
- Projects of MASS
First, the experiments using scaled model ships are explained. Next, the significance of the development of maritime autonomous surface ship (MASS), which have attracted attention in these days, is explained. The outline of the automatic collision avoidance and automatic berthing/unberthing functions are also given. Finally, the trend of IMO and some projects of the development of MASS are introduced.
Videos
/学習動画
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Tank experiments with scaled model ship
In this part, students learn about “Tank experiments with scaled model ship”.
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Significance of autonomous ship and its function
In this part, students learn about “Significance of autonomous ship and its function”.
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Development trends of autonomous ship
In this part, students learn about “Development trends of autonomous ship”.
Lecturers
/講師
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SANO Masaaki
Associate Professor, School of Engineering, Hiroshima University
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Challenge to Realize Fully Autonomous Ship
- Social implementation
- Technical issues
- Autonomous navigation function
- Demonstration test
The DFFAS (Designing the Future of Full Autonomous Ship) consortium conducted various tests and verifications with the aim of implementing autonomous ship in society. The consortium is participating in the Joint Technological Development Programme for the Demonstration of Fully Autonomous Ships under the fully autonomous ship project “MEGURI 2040” administrated by The Nippon Foundation. This lecture introduces the technical elements of autonomous ship and the issues that need to be addressed for future social implementation, including interviews with the people in charge.
Videos
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Technical issues related to autonomous ships1
In this lecture, students learn about “Technical issues related to autonomous ships” through two parts. This is the first part in that series.
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Technical issues related to autonomous ships2
In this lecture, students learn about “Technical issues related to autonomous ships” through two parts. This is the second part in that series.
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Demonstration of Autonomous Ship
In this part, students learn about ” Demonstration of Autonomous Ship”.
Lecturers
/講師
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MTI Co., Ltd
MTI Co., Ltd
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Ship Hull Materials and Weight Reduction1
- Strength of materials
- Metal material
- Composite material
- Mechanical properties
Representative materials for ships, especially the main materials for the hull, include wood, steel plate, aluminum, FRP, etc. This lecture will provide an easy-to-understand overview of the characteristics, properties, and mechanical properties of these materials. This lecture will also provide an overview of strength of materials, which is essential for reducing weight.
Videos
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Ship Hull Materials and Weight Reduction 1-1
In this lecture, students learn about “Ship Hull Materials and Weight Reduction 1” through three parts. This is the first part in that series.
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Ship Hull Materials and Weight Reduction 1-2
In this lecture, students learn about “Ship Hull Materials and Weight Reduction 1” through three parts. This is the second part in that series.
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Ship Hull Materials and Weight Reduction 1-3
In this lecture, students learn about “Ship Hull Materials and Weight Reduction 1” through three parts. This is the third part in that series.
Lecturers
/講師
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TANAKA Yoshikazu
Associate Professor, School of Engineering, Hiroshima University
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Ship Hull Materials and Weight Reduction2
- Specific strength
- Specific elastic modulous
- High tensile strength steel
- CFRP
Students will understand the specific weight, specific modulus of elasticity, and specific strength of wood, metal, and composite materials that have been used as hull materials. Students will also learn about optimizing of hull structures using the finite element method, and consider weight reduction to improve fuel efficiency and reduce carbon dioxide emissions.
Videos
/学習動画
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Ship Hull Materials and Weight Reduction 2-1
In this lecture, students learn about “Ship Hull Materials and Weight Reduction 2” through three parts. This is the first part in that series.
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Ship Hull Materials and Weight Reduction 2-2
In this lecture, students learn about “Ship Hull Materials and Weight Reduction 2” through three parts. This is the second part in that series.
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Ship Hull Materials and Weight Reduction 2-3
In this lecture, students learn about “Ship Hull Materials and Weight Reduction 2” through three parts. This is the third part in that series.
Lecturers
/講師
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KATAGIRI Kazuaki
Professor, School of Engineering, Hiroshima University
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Structure and Strength of Ships 1
- Ship strength
- Elastic and elastic-plastic behavior
- Brittle fracture
- Structural strength
This lecture will explain important points in evaluating hull strength. First, we will explain the elastoplastic behavior of steel materials commonly used in ships. Furthermore, we will explain the elastic and elastoplastic behavior of plates and stiffened panels, which are typical structural members. Furthermore, we will explain the brittle fracture that occurs in low-temperature steel materials and the brittle fracture test
Videos
/学習動画
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Elastic-plastic behaviors of metal
In this part, students learn about “Elastic-plastic behaviors of metal”.
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Elastic and elastic-plastic buckling behaviors
In this part, students learn about “Elastic and elastic-plastic buckling behaviors”.
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Brittle fracture
In this part, students learn about “Brittle fracture”.
Lecturers
/講師
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TANAKA Satoyuki
Associate Professor, School of Engineering, Hiroshima University
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Structure and Strength of Ships 2
- Fatigue fracture
- Welded joint
- Tubular oint
- Crack propagation
This section explains keywords related to fatigue strength evaluation of steel materials and fatigue testing of steel materials. Furthermore, some material fatigue and welded joint fatigue tests are introduced. From the middle to the second half, we will introduce fatigue fracture and strength evaluation of cylindrical joints, and crack growth simulation as examples of fatigue strength and fatigue fracture of structures
Videos
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Fatigue failure
In this part, students learn about “Fatigue failure”.
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Fatigue fracture behavior of tubular joint 1
In this lecture, students learn about “Fatigue fracture behavior of tubular joint” through two parts. This is the first part in that series.
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Fatigue fracture behavior of tubular joint 2
In this lecture, students learn about “Fatigue fracture behavior of tubular joint” through two parts. This is the second part in that series.
Lecturers
/講師
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TANAKA Satoyuki
Associate Professor, School of Engineering, Hiroshima University
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Ship Design / manufacturing technology and DX 1
- Data
- DX
- Industry 4.0
- Cyber Physical System
In recent years, digital transformation (DX) has been rapidly progressing in ship design and production activities. This lecture will focus on ship design activities. Moreover, the overview of the ship design activity and transformation using information technology will discussed.
Videos
/学習動画
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Ship Design / manufacturing technology and DX 1-1
In this lecture, students learn about “Ship Design / manufacturing technology and DX 1” through three parts. This is the first part in that series.
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Ship Design / manufacturing technology and DX 1-2
In this lecture, students learn about “Ship Design / manufacturing technology and DX 1” through three parts. This is the second part in that series.
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Ship Design / manufacturing technology and DX 1-3
In this lecture, students learn about “Ship Design / manufacturing technology and DX 1” through three parts. This is the third part in that series.
Lecturers
/講師
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HAMADA Kunihiro
Professor, School of Engineering, Hiroshima University
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Ship Design / manufacturing technology and DX 2
- DX
- block construction method
- Smart shipyard
- Digital twin
In recent years, digital transformation (DX) has been rapidly progressing in ship design and production activities. This lecture will focus on ship construction activities. Moreover, the overview of the ship construction activity and transformation using information technology will discussed.
Videos
/学習動画
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Ship Design / manufacturing technology and DX 2-1
In this lecture, students learn about “Ship Design / manufacturing technology and DX 2” through three parts. This is the first part in that series.
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Ship Design / manufacturing technology and DX 2-2
In this lecture, students learn about “Ship Design / manufacturing technology and DX 2” through three parts. This is the second part in that series.
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Ship Design / manufacturing technology and DX 2-3
In this lecture, students learn about “Ship Design / manufacturing technology and DX 2” through three parts. This is the third part in that series.
Lecturers
/講師
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HAMADA Kunihiro
Professor, School of Engineering, Hiroshima University
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Ship fittings, instrumentation, and control engineering 1
- Unit
- Uncertainty
- Instrumentation system
- Analog/digital
In this lecture, ship fittings used in ships are introduced. Moreover, the basics of instrumentation engineering necessary for the condition monitoring of machinery-related equipment are learned. Typical sensors, measurement devices, and the basics of instrumentation systems are also introduced.
Videos
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Ship fittings
In this part, students learn about “Ship fittings”.
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Basics of instrumentation engineering
In this part, students learn about “Basics of instrumentation engineering”.
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Instrumentation system
In this part, students learn about “Instrumentation system”.
Lecturers
/講師
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SHINTAKU Eiji
Associate Professor, School of Engineering, Hiroshima University
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Ship fittings, instrumentation, and control engineering 2
- Modeling of the system
- Feedback control
- Maneuvering
- Stability of a system
In this lecture, equipment and control systems necessary for the maneuvring and control of vehicles, such as automobiles, ships, and aircrafts are introduced. Moreover, the history of the classical control theory, feedback control, and the stability of the system, which are the basics of control theory, are also introduced.
Videos
/学習動画
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Basics of control engineering
In this part, students learn about “Basics of control engineering”.
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Feedback control system
In this part, students learn about “Feedback control system”.
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Maneuvering of vehicles and stability of the system
In this part, students learn about “Maneuvering of vehicles and stability of the system”.
Lecturers
/講師
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SHINTAKU Eiji
Associate Professor, School of Engineering, Hiroshima University
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Safety of Maritime Transport from the Perspective of Maritime Traffic 1
- Maritime transport
- Optimal route
- Environmental impact
- Maritime safety
This lecture will provide an overview of maritime transport safety from the perspective of maritime traffic. It will explain the environment surrounding maritime traffic, including the promotion of a shift to maritime transport by ships as a means of transport with a lower environmental impact, and the expansion of marine use due to the growing demand for renewable energy.
Videos
/学習動画
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Safety of Maritime Transport from the Perspective of Maritime Traffic 1-1
In this lecture, students learn about “Safety of Maritime Transport from the Perspective of Maritime Traffic 1” through three parts. This is the first part in that series.
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Safety of Maritime Transport from the Perspective of Maritime Traffic 1-2
In this lecture, students learn about “Safety of Maritime Transport from the Perspective of Maritime Traffic 1” through three parts. This is the second part in that series.
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Safety of Maritime Transport from the Perspective of Maritime Traffic 1-3
In this lecture, students learn about “Safety of Maritime Transport from the Perspective of Maritime Traffic 1” through three parts. This is the third part in that series.
Lecturers
/講師
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MIYAKE Rina
Visiting Associate Professor, School of Engineering, Hiroshima University
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Safety of Maritime Transport from the Perspective of Maritime Traffic 2
- Maritime transport
- Optimal route
- Environmental impact
- Maritime safety
This lecture will introduce maritime traffic safety management and examples of maritime traffic safety management. Specifically, it will explain how conventional safety measures were centered on congested waters (Tokyo Bay, Ise Bay, Seto Inland Sea, and Kanmon Port), how AIS has expanded the observable area of maritime traffic, simplified analysis, and made it possible to grasp traffic conditions in coastal areas where traffic volume is high and the probability of accidents occurring is high.
Videos
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Safety of Maritime Transport from the Perspective of Maritime Traffic 2-1
In this lecture, students learn about “Safety of Maritime Transport from the Perspective of Maritime Traffic 2” through three parts. This is the first part in that series.
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Safety of Maritime Transport from the Perspective of Maritime Traffic 2-2
In this lecture, students learn about “Safety of Maritime Transport from the Perspective of Maritime Traffic 2” through three parts. This is the second part in that series.
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Safety of Maritime Transport from the Perspective of Maritime Traffic 2-3
In this lecture, students learn about “Safety of Maritime Transport from the Perspective of Maritime Traffic 2” through three parts. This is the third part in that series.
Lecturers
/講師
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MIYAKE Rina
Visiting Associate Professor, School of Engineering, Hiroshima University
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Ocean Remote Sensing 1 (Basics)
- SST
- chlorophyll-a
- SSH
- validation
As a foundation for ocean and maritime engineering science, we will understand the basics of ocean remote sensing (ORS) and learn the field survey method ORS data for ocean environmental assessment in this lecture.
Videos
/学習動画
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Ocean Remote Sensing 1-1
In this lecture, students learn about “Ocean Remote Sensing 1” through three parts. This is the first part in that series.
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Ocean Remote Sensing 1-2
In this lecture, students learn about “Ocean Remote Sensing 1” through three parts. This is the second part in that series.
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Ocean Remote Sensing 1-3
In this lecture, students learn about “Ocean Remote Sensing 1” through three parts. This is the third part in that series.
Lecturers
/講師
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SAKUNO Yuji
Professor, School of Engineering, Hiroshima University
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Ocean Remote Sensing 2 (Application)
- color system
- feflectance
- thermography
- aerosol
As a foundation for ocean and maritime engineering science, we will understand the theory of ocean remote sensing (RS) and learn ORS applications for ocean environmental assessment in this lecture.
Videos
/学習動画
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Ocean Remote Sensing 2-1
In this lecture, students learn about “Ocean Remote Sensing 2” through three parts. This is the first part in that series.
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Ocean Remote Sensing 2-2
In this lecture, students learn about “Ocean Remote Sensing 2” through three parts. This is the second part in that series.
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Ocean Remote Sensing 2-3
In this lecture, students learn about “Ocean Remote Sensing 2” through three parts. This is the third part in that series.
Lecturers
/講師
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SAKUNO Yuji
Professor, School of Engineering, Hiroshima University
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Ocean observation and monitoring 1
- mooring observation
- Argo float
- underwtaer acoustics
- ADCP
This lecture will provide an overview of the technology used to observe and monitor the ocean interior. In particular, we learn observation using observation ships, mooring systems, Argo floats, and ADCP current velocity measurements.
Videos
/学習動画
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Ocean observation and monitoring 1-1
In this lecture, students learn about “Ocean observation and monitoring 1” through three parts. This is the first part in that series.
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Ocean observation and monitoring 1-2
In this lecture, students learn about “Ocean observation and monitoring 1” through three parts. This is the second part in that series.
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Ocean observation and monitoring 1-3
In this lecture, students learn about “Ocean observation and monitoring 1” through three parts. This is the third part in that series.
Lecturers
/講師
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TANIGUCHI Naokazu
Associate Professor, School of Engineering, Hiroshima University
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Ocean observation and monitoring 2
- tidal current
- tide station
- tide prediction
- tidal constituent
In this lecture, we focus on tide, a familiar ocean phenomenon, and an overview of the mechanisms, observation and monitoring methods, prediction methods, and tide data usage will be given.
Videos
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Ocean observation and monitoring 2-1
In this lecture, students learn about “Ocean observation and monitoring 2” through three parts. This is the first part in that series.
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Ocean observation and monitoring 2-2
In this lecture, students learn about “Ocean observation and monitoring 2” through three parts. This is the second part in that series.
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Ocean observation and monitoring 2-3
In this lecture, students learn about “Ocean observation and monitoring 2” through three parts. This is the third part in that series.
Lecturers
/講師
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TANIGUCHI Naokazu
Associate Professor, School of Engineering, Hiroshima University
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NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 1
- NOWPHAS
- Properties of Waves
- Tsunami
- GPS
This lecture will provide an overview of observation methods that are suited to the characteristics of ocean waves. This will include an overview of the statistical treatment of waves, wave prediction, GPS wave gauges, and tsunami observation.
Videos
/学習動画
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NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 1-1
In this lecture, students learn about “NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 1” through three parts. This is the first part in that series.
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NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 1-2
In this lecture, students learn about “NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 1” through three parts. This is the second part in that series.
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NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 1-3
In this lecture, students learn about “NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 1” through three parts. This is the third part in that series.
Lecturers
/講師
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KAWAGUCHI Koji
Visiting Professor, School of Engineering, Hiroshima University
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NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 2
- NOWPHAS
- Properties of Waves
- Tsunami
- GPS
In this lecture, we will explain the observation principle, data usage examples, and significance of NOWPHAS, Japan’s leading nationwide port ocean wave information network.
Videos
/学習動画
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NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 2-1
In this lecture, students learn about “NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 2” through three parts. This is the first part in that series.
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NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 2-2
In this lecture, students learn about “NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 2” through three parts. This is the second part in that series.
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NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 2-3
In this lecture, students learn about “NOWPHAS : Nationwide Ocean Wave information network for Ports and HArbourS 2” through three parts. This is the third part in that series.
Lecturers
/講師
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KAWAGUCHI Koji
Visiting Professor, School of Engineering, Hiroshima University
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Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 1
- Ocean currents and tides
- Seto Inland Sea
- Japan Sea of Japan
- Doppler effect
This lecture will provide an overview of the basic principles (ultrasonic Doppler effect) and examples of use of ADCP, a representative example of marine measurement equipment.
Videos
/学習動画
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Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 1-1
In this lecture, students learn about “Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 1” through three parts. This is the first part in that series.
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Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 1-2
In this lecture, students learn about “Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 1” through three parts. This is the second part in that series.
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Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 1-3
In this lecture, students learn about “Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 1” through three parts. This is the third part in that series.
Lecturers
/講師
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CHIBA Hajime
Visiting Professor, School of Engineering, Hiroshima University
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Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 2
- Ocean currents and tides
- Seto Inland Sea
- Japan Sea of Japan
- Doppler effect
In this lecture, we will learn how to calculate the absolute current direction and velocity of the seawater at a given location by grasping the course and speed of a ship while sailing, as an example of the application of ADCP to actual sea areas. For example, we will introduce observation data for the Sea of Japan and the Seto Inland Sea.
Videos
/学習動画
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Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 2-1
In this lecture, students learn about “Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 2” through three parts. This is the first part in that series.
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Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 2-2
In this lecture, students learn about “Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 2” through three parts. This is the second part in that series.
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Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 2-3
In this lecture, students learn about “Characteristics of Ocean Currents in the Sea of Japan and the Seto Inland Sea Using Ship-Mounted ADCP (Acoustic Doppler Current Profiler) 2” through three parts. This is the third part in that series.
Lecturers
/講師
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CHIBA Hajime
Visiting Professor, School of Engineering, Hiroshima University
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Development of Ships and the Evolution of the Maritime Industry 1
- Maritime transport system
- International intermodal transport
- Supply chain
- Logistics
This lecture will explain the development of ships and the transition of the shipping industry. In particular, the shipping system and the United Nations intermodal transport will be explained.
Videos
/学習動画
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Development of Ships and the Evolution of the Maritime Industry 1-1
In this lecture, students learn about “Development of Ships and the Evolution of the Maritime Industry 1” through three parts. This is the first part in that series.
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Development of Ships and the Evolution of the Maritime Industry 1-2
In this lecture, students learn about “Development of Ships and the Evolution of the Maritime Industry 1” through three parts. This is the second part in that series.
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Development of Ships and the Evolution of the Maritime Industry 1-3
In this lecture, students learn about “Development of Ships and the Evolution of the Maritime Industry 1” through three parts. This is the third part in that series.
Lecturers
/講師
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NONOYAMA kazuhiro
Visiting Associate Professor, School of Engineering, Hiroshima University
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Development of Ships and the Evolution of the Maritime Industry 2
- Maritime transport system
- International intermodal transport
- Supply chain
- Logistics
This lecture will explain the development of ships and the changes in the shipping industry. In particular, we will explain individual cargo contracts, supply chains, and logistics.
Videos
/学習動画
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Development of Ships and the Evolution of the Maritime Industry 2-1
In this lecture, students learn about “Development of Ships and the Evolution of the Maritime Industry 2” through three parts. This is the first part in that series.
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Development of Ships and the Evolution of the Maritime Industry 2-2
In this lecture, students learn about “Development of Ships and the Evolution of the Maritime Industry 2” through three parts. This is the second part in that series.
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Development of Ships and the Evolution of the Maritime Industry 2-3
In this lecture, students learn about “Development of Ships and the Evolution of the Maritime Industry 2” through three parts. This is the third part in that series.
Lecturers
/講師
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NONOYAMA kazuhiro
Visiting Associate Professor, School of Engineering, Hiroshima University
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Transportation by Ship 1
- Loading and unloading operations
- Fastening methods and materials,
- Special cargo handling
- Voyage
Learn the basics of sailing a large ship across the ocean. In particular, we will use an autonomous carrier as an example to explain loading and unloading operations and costs.
Videos
/学習動画
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Transportation by Ship 1-1
In this lecture, students learn about “Transportation by Ship 1” through three parts. This is the first part in that series.
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Transportation by Ship 1-2
In this lecture, students learn about “Transportation by Ship 1” through three parts. This is the second part in that series.
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Transportation by Ship 1-3
In this lecture, students learn about “Transportation by Ship 1” through three parts. This is the third part in that series.
Lecturers
/講師
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KAMEI Shisei
Visiting Associate Professor, School of Engineering, Hiroshima University
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Transportation by Ship 2
- Loading and unloading operations
- Fastening methods and materials,
- Special cargo handling
- Voyage
Learn specialized knowledge for sailing large ships and crossing the wide ocean. In particular, using an autonomous carrier as an example, we will explain lashing methods, lashing materials, and special cargo handling.
Videos
/学習動画
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Transportation by Ship 2-1
In this lecture, students learn about “Transportation by Ship 2” through three parts. This is the first part in that series.
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Transportation by Ship 2-2
In this lecture, students learn about “Transportation by Ship 2” through three parts. This is the second part in that series.
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Transportation by Ship 2-3
In this lecture, students learn about “Transportation by Ship 2” through three parts. This is the third part in that series.
Lecturers
/講師
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KAMEI Shisei
Visiting Associate Professor, School of Engineering, Hiroshima University
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History of Marine Insurance / Introduction to Engineering Experiment: Vibration Experiment as an Example
- Logistics and Trade
- Eigenfrequency
- Vibration mode
- Resonance
Insurance has developed since the Age of Discovery, because ship accidents can cause great damage and lead to corporate bankruptcies and social unrest. We will look back on the history of maritime insurance, including the dawn of marine insurance and the development of Lloyd’s Insurance Company, and consider the future of maritime logistics. /
Experiencing what has been learned in the classroom through experiments leads to a better understanding of the content. Therefore, as an introduction to engineering experiments, a vibration experiment of a beam is used as an example.Videos
/学習動画
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History of Marine Insurance
In this part, students learn about “History of Marine Insurance”.
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Introduction to Engineering Experiment: Vibration Experiment as an Example 1
In this lecture, students learn about “Introduction to Engineering Experiment: Vibration Experiment” through two parts. This is the first part in that series.
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Introduction to Engineering Experiment: Vibration Experiment as an Example 2
In this lecture, students learn about “Introduction to Engineering Experiment: Vibration Experiment” through two parts. This is the second part in that series.
Lecturers
/講師
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Mitsui Sumitomo Insurance Company, Limited
Mitsui Sumitomo Insurance Company, Limited
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TANAKA Yoshikazu
Associate Professor, School of Engineering, Hiroshima University
Staff/スタッフ
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MUTSUDA HidemiHiroshima University School of EngineeringProfessor
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NAKASHIMA TakujiHiroshima University School of EngineeringAssociate Professor
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SANO MasaakiHiroshima University School of EngineeringAssociate Professor
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MTI Co., LtdMTI Co., Ltd
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TANAKA YoshikazuHiroshima University School of EngineeringAssociate Professor
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KATAGIRI KazuakiHiroshima University School of EngineeringProfessor
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TANAKA SatoyukiHiroshima University School of EngineeringAssociate Professor
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HAMADA KunihiroHiroshima University School of EngineeringProfessor
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SHINTAKU EijiHiroshima University School of EngineeringAssociate Professor
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MIYAKE RinaHiroshima University School of EngineeringVisiting Associate Professor
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SAKUNO YujiHiroshima University School of EngineeringProfessor
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TANIGUCHI NaokazuHiroshima University School of EngineeringAssociate Professor
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KAWAGUCHI KojiHiroshima University School of EngineeringVisiting Professor
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CHIBA HajimeHiroshima University School of EngineeringVisiting Professor
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NONOYAMA kazuhiroHiroshima University School of EngineeringVisiting Associate Professor
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KAMEI ShiseiHiroshima University School of EngineeringVisiting Associate Professor
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Mitsui Sumitomo Insurance Company, LimitedMitsui Sumitomo Insurance Company, Limited
Competency/コンピテンシー
Course Objectives
This course will develop the ability to contribute to “peaceful use of the seas and sustainable development” while acquiring the broad education and specialized knowledge and skills necessary for global human resources in the oceans and maritime fields who will be active in Asia (especially in ASEAN countries, particularly Indonesia, which is experiencing rapid economic development and strengthening the oceans and maritime fields as a national policy) and the world.
– Understand maritime civilization, culture, and history, and be able to explain the relationship between people and the sea since recorded history and in the future.
– Understand the basic propulsion/motion mechanisms of ships, and be able to explain technologies related to energy saving and automatic navigation.
– Understand the basic structure of a ship, and be able to explain numerical simulation technology related to ship structure.
– Understand the design and production technologies related to ship construction and the mechanisms of maritime logistics, and be able to explain the latest efforts such as Digital transformation of factories and logistics.
– Be able to explain efforts related to the oceans and maritime fields with an eye to the near future, and have knowledge of various elemental technologies such as ship steering control, communication infrastructure, and monitoring.
– Understand the current issues and be able to proactively consider countermeasures for the safe, secure, and sustainable peaceful use of marine space.
Learning Outcomes
The following goals have been set in order to cultivate global human resources with wide-ranging education and specialized knowledge who will be active in the oceans and maritime fields in Asia (particularly the ASEAN countries, centered on Indonesia, which is experiencing rapid economic development and is strengthening the oceans and maritime fields as a national policy) and around the world:
– Acquire comprehensive knowledge related to the oceans and maritime fields from the perspectives of science, humanities, and social science, and to develop an ethical sense and the ability to think from multiple perspectives about the peaceful use of the seas and their sustainable development.
– Develop an interest in engineering issues related to the oceans and maritime fields, and the ability to gather information independently and continuously.
– Understand and acquire the basic knowledge necessary for marine and maritime engineers and researchers.
– Develop specialized knowledge related to the oceans and maritime fields and the ability to rationally apply this to problem solving.
Contact/お問合せ先
Professor, KATAGIRI Kazuaki,
School of Engineering, Hiroshima University
Associate Professor, TANAKA Yoshikazu,
School of Engineering, Hiroshima University
Associate Professor, NAKASHIMA Takuji,
School of Engineering, Hiroshima University
Associate Professor, SANO Masaaki,
School of Engineering, Hiroshima University
Professor, HAMADA Kunihiro,
School of Engineering, Hiroshima University
Associate Professor, TANIGUCHI Naokazu,
School of Engineering, Hiroshima University
Professor, MUTSUDA Hidemi,
School of Engineering, Hiroshima University
Associate Professor, TANAKA Yoshikazu,
School of Engineering, Hiroshima University
Professor, SAKUNO Yuji,
School of Engineering, Hiroshima University
Professor, MUTSUDA Hidemi,
School of Engineering, Hiroshima University
Associate Professor, TANAKA Satoyuki,
School of Engineering, Hiroshima University
Associate Professor, SHINTAKU Eiji,
School of Engineering, Hiroshima University





