해상 준설선을 이용한 항로의 준설시공 과정에서 중요한 점은 작업구역의 공간적 축소로 여유통항수역의 제공과 수면하의 위험물 배제로 안전항행을 제공하는 것이 기본이다. 이를 위해서는 준설선의 이동과 고정을 위한 보조장비의 적극적인 활용과 함께 부대 장비의 실시간 위치확인, 실시간 준설수심 확인 및 작업정보 등을 통합적인 정보로 제공하여 준설 작업의 자동화를 꾀해야 한다. 그런데, 본 연구에서 스퍼드 제어시스템을 비치한 준설선은 준설 시공시 준설구역 내 준설점 위치로 이동을 스퍼드로 하고 스퍼드는 자동제어 기술을 적용하여 준설선의 능동적 이동에 의한 준설시공을 행하여 최소의 작업공간을 점유하게 되므로 항행하는 타 선박의 안전한 통과를 허용하면서 준설공사를 중단 없이 시공할 수 있다. 또한, 스퍼드 활용 항로준설시스템은 스퍼드의 거동괘적은 물론 전자해도와 함께 작업심도 자료를 동시에 제공하므로 신속한 작업성과까지도 제시할 수 있다는 점에서 기존의 관리시스템과는 비교가 된다. 시스템 평가를 위한 부산항에서의 시험시공결과 일일 작업 시 기존의 앵카시스템을 이용한 작업시간의 2배정도를 실제 투입할 수 있었으며, 준설시공 요건별 비교에서도 준비시간을 38% 절감할 수 있었고 준비작업에 필요한 작업인력을 1인 줄일 수 있는 것으로 나타났다.

항만을 출입항하는 선박의 통항 안전을 확보하기 위해서는 방파제와 같은 항만 시설물의 설계 또는 배치시에는 우선적으로 선박의 조종 성능을 감안하여 교통 흐름이 원활하도록 적정한 항로를 지정하여야 한다. 이 연구에서는 부산항 및 감천항 입항을 위해 방파제 인접 항로에서 일정 침로로 접근하는 컨테이너 선박이 외력인 바람, 조류, 파랑에 의해 선체에 발생하는 횡압류 및 회두 현상을 정량적으로 분석하여, 선속에 따라 외력을 상쇄하기 위해 취해야 할 대응타각을 산출한다. 또한 향후 방파제 설계 및 배치시 고려해야 될 외력하의 선박의 조종 성능요소를 제안함과 동시에 방파제의 설계와 항로 배치와의 관계에 대하여 고찰한다.

해상에서 해양사고를 예방하고 통항안전성을 증대시키기 위해 연안 VTS와 항행보조시설이 적극 검토되고 있으나 막대한 비용과 예산이 든다. 따라서 연안해역에 통항 안전성을 평가하여 우선순위를 결정해야하고 통항 안전성평가는 조선자의 관점에서 평가되어야 한다. 한편, 인간의 사고에는 많은 형태의 애매함이 존재하기 때문에 이러한 애매함을 반영하기 위해 본 연구에서는 퍼지측도와 쇼케적분을 이용하였다. 본 연구의 목적은 퍼지측도와 쇼케적분을 이용하여 조선부담감의 관점에서 평가모델을 개발하고 우리나라 연안해역을 8개로 나누고 연안 VTS와 항행보조시설 설치의 우선순위를 결정하기 위한 평가를 실시하였다.

항만 및 항로의 설계에 있어서 시뮬레이터 적용의 중요성과 그 기능이 강조되고 있다. 본 연구에서는 시뮬레이션의 다른 방법과 그 적용에 대하여 소개하였고, 대축척 시뮬레이션의 개념, 그룹시뮬레이션을 제안하였다. 이 과업을 적절하고 효과적으로 수행하기 위하여 시뮬레이터의 요구조건을 제시하였고, 특별히 항로설계 시뮬레션에서 가장 중요한 선박의 동하중 모델링에서의 몇가지 관점과 주위환경 요소를 설명하고 알고리즘을 나타내었다.

Marine Casualties cause the loss of hmm lives, properties and marine pollution. The prevention of marine accidents has been a major topic in marine society and various policies and countermeasures have been developed, applied to the industries. The coastal VTS and navigational aids are considered as one of the effective methods to promote marine safety but they need relatively huge amount of budgets to build. Thus prior to establishing these coastal VTS and navigational aids, it should be evaluated the navigational safety level in the coastal waterways in concern. So far as human beings are concerned, there are many types of fuzziness in the evaluation of navigational safety level. In order to reflect these fuzziness on this evaluation, this paper introduces the fuzzy measure and integral to represent the fuzziness in the evaluation process. Therefore this paper aims to develop the method for this evaluation using the fuzzy measure and integral. In this paper, Korean coastal area is divided into 8 sectors and evaluated the priority for the needs of coastal VTS and navigational aids. The results are found as order as Mokpo, Yosu, Pohang, Busan, Inchon, Geoje, Gunsan, Donghae coastal area.

Kwangyang harbour has been developed very rapidly and has 20 berths including 2 for 250,000DWT bulk carriers at the terminal of Kwangyang Steel Company only. In addition to this, the port is developing a container terminal with 10 berths for 50,000GRT container ships, the construction of which is scheduled to be finished in the year 2000. Because of these development, it has been pointed out that the existing waterways are not wide and safe enough for the new large ships to be catered for. This work, therefore, aimed to examine the naviga-tional safety of the waterways of Kwangyang Harbour, and to suggest how to improve the existing water-ways for the large ships to be introduced in the near future. In examining the safety of the existing and newly suggested waterways, waterway design simulation methodology has been applied. From this study, it has been suggested that the No.4 navigational channel has to be dredged to the depth of 22.5 meters and used as an entrance channel only, while the No.3 channel is used as an exit channel. Additionally, a new waterway has been recommended to be established over the Myodo Island for the container ships which will use the new terminal, the width of which has been recommended to be 400 meters with 440 meters from the bend area.

The Waterway System for the Very Large Ships is One of the Important System connected between Marine Transport System and Exclusive Terminal. This study analyzed the Turning Configurations and Placement of Fairway Buoys in Waterway at the Port of Kwangyang to make Optimal Suggestion of for Ship's Safe Navigation. The following Conclusions are drawn : 1) In Area Section A, Starboard hand Buoy No14 should be changed its Location and Light Rhythms, and Buoy Nos.13 '||'&'||' 16 are required their Light Rhythms to be changed. 2) Especially in Area Section B located before the Turning Basin, The Location and Light Rhythms of Nos.20 '||'&'||' 22 buoys at Starboard Hand should be changed, Port Hand No.21 also should be done, and East Cardinal Buoy located between Nos.21and 23 should be changed its Light Rhythms, or removed if possible. 3) Buoy no.19 of Lateral Port Hand in Section B should be changed "Preferred Channel to Startboard" to distinguish Main Channel from Secondary One.

From the point of view of safety of life and property at sea and the protection of the marine environment, the Vessel Traffic Management System along the Korea coastal waterway is inevitably introduced. But the establishing priority per area must be evaluated under the restricted budget. In this case, the estimated traffic flow has a major effect on priority evaluation. In the former paper <I>, an algorithm was proposed for estimating the trip distribution between each pair of zones such as harbours and straits. This paper aims to formulate a simulation model for estimating the dynamic traffic flow per area in the Korea coastal waterway. The model consists of the algorithm constrined by the statistical movement of ships and the observed data, the regression analysis and the traffic network evaluations. The processed results of traffic flow except fishing vessel are summarized as follows ; 1) In 2000, the traffic congestions per area are estimated, in proportion of ship's number (tonnage), as Busan area 22.3%(44.5%), Yeosu area 19.8%(11.2%), Wando-Jeju area18.1%(6.8%), Mokpo area 14.9%(9.9%), Gunsan area 9.1%(9.3%), Inchon area 8.1%(7.7%), Pohang area 5.5%(8.5%), and Donghae area 2.2%(2.1%). 2) For example in Busan area, the increment of traffic volume per annum is estimated 4, 102 ships (23 million tons) and the traffic flow in 2000 is evaluated 158, 793 ships (687 million tons). 3) consequently, the increment of traffic volume in Busan area is found the largest and followed by Yeosu, Wando-Jeju area. Also, the traffic flow per area in 2000 has the same order.

Generally, the development of shipping is characterized by the amount of traffic flow (traffic volume) and seaborne cargo in the sea. Movement of ships is an essential element of constructing the traffic flow which is represented the dynamic movement of ships in the sea, but on the other band the numbers of arriving and departing the port is the basic factor consisting of the static movement of ships. The amount of cargoes by coastal vessels and ocean trade vessels have increased tremendously with the great growth of the Korean economy these days. This increase of the seaborne cargoes has made the Korean coastal traffic flow so congested that this can be a cause of large pollution as well as great marine casualities such as a loss of human lives and properties . And also the future coastal traffic is expected to increase considerably according to our economic development and high dependence upon foreign trade. Under the circumstance, to devise the safety of coastal traffic flow and to take a proper step of a efficient navigation, there is a necessity for analyzing and surveying the coastal traffic trend and the characteristics of cargo movement. In order to grasp the dynamic movement of ships in the Korean coast, O/D analysis is executed. This paper aims to secure the basic data necessary for a comprehensive plan and estimation of vessel traffic management system for the enhancement of safety, order and efficiency of vessel traffic in the Korean coast. The analyzed results of the traffic flow and seaborne cargoes of the Korean coast are summarized as follows : 1) The congestion by the vessels occurred around the ports such as-in proportion of ship's number (proportion of tonnage) -Incheon 18.5%(14.8%), Pohang 5.9% (9.9%), Samil 5.2%(8.3%), Mokpo 8.6%(0.8%), Pusan 13.5%(36.4%), Ulsan 9.1%(16.2%). 2) It is found that the area adjacent to Incheon, Pusan, Ulsan, Channel of Hanryu and South-western area are heavily congested. 3) It is confirmed thatthe area adjacent to Incheon, Pusan, Ulsan, Channel of Hanryu and South-western area are heavily congested. 3) It is confirmed that the coastal vessels are main elements constituting the coastal traffic and that there are much traffic flow among five ports as following through the precise O/D analysis of ship's coastal movement. Incheon-Samil, Ulsan, Pusan, Jeju Pusan -Samil, Ulsan, Incheon, Jeju Pohang -Samil, Inchoen, Jeju Pohang -Samil, Incheon, Jeju Ulsan -Samil, Incheon, Jeju Samil -Ulsan, Pusan, Incheon 4) The amount of cargoes to abroad are in proportion about 81% of total and the amount of coastal cargoes are about 19%. Of those, cargoes in and out to Japan are about 26% and to South-east Asia are about 27%. 5) The chief items of foreign cargoes are oil(38.33%), iron ore(13.98%), bituminoous coal(12.74%), grain(8.02%), lumber(6.45%) in the import cargoes and steel material(21.96%), cement(17.16%), oil(6.81%), fertilizer(3.80%) in the export cargoes. 6) The 80.5% of total export cargoes and 92.4% of total import cargoes are flowed in five main ports. 7) The chief items of coastal cargoes are oil (42.45%), cement(16.86%), steel material (6.49%), anthracite(6.31%), mineral product(4.3%), grain, and fertilizer. Almost 92.24% of total import and export oil cargoes in Korea is loaded and unloaded at the port of Samil & Ulsan.