본 연구에서는 컨테이너 터미널의 물류역량이 서비스 품질과 고객반응에 어떠한 영향을 미치는지 파악하여 향후 컨테이너 터미널의 마케팅 전략 수립에 시사점을 제공하고자 한다. 표본설계는 한국선주협회, 한국선박관리업협회에 등록된 선사 중 부산항 컨테이너 터미널을 이용하고 있는 선사별로 2011년 12월 5일부터 23일까지 5~8부의 설문지를 직접방문을 통하여 배포하고 회수된 설문지 243부를 분석하였다. 실증분석 결과 서비스 품질과 고객반응에 정(+)의 영향을 미치는 물류역량 요인 중 관리역량이 가장 큰 영향을 미치는 것으로 나타났고, 고객반응에 정(+)의 영향을 미치는 서비스품질 요인 중 공감성이 가장 큰 영향을 미치는 것으로 나타났다. 그러므로 컨테이너 터미널에서는 적/양하를 계획할 때 고객의 요구사항을 정확히 파악하여 이를 적극적으로 반영하고 고객에게 최상의 서비스를 제공하여야 할 것이다.

최근 들어서 부산항의 환적화물 처리량이 크게 감소하는 등 국내 항만 물동량이 예측치를 크게 밑돌고 있다. 이에 따라 과거 급증했던 환적화물 처리를 위해 계획된 국내 항만개발계획의 대폭적인 수정이 불가피한 상황이며, 항만 물동량 유치가 그 어느 때 보다도 중요한 실정이다. 이러한 상황에서 본 연구는 중국과 더불어 국내 항만의 2대 환적시장인 일본을 대상으로 일본 수출입 화물을 부산항에서 환적 처리하는 경우 물류비 절감효과를 파악하는 것을 목적으로 하였다. 이를 위해 일본 서안지역 항만 화물운송 패턴을 3가지 시나리오로 구분하여 물류비를 비교 분석하여 부산항을 이용할 경유 예상되는 물류비 절감효과와 화물유치를 위한 시사점을 제시하였다.

2007년 초 1만1천TEU 엠마머스크호의 첫 등장을 필두로 향후 5년 이내 1만5천TEU급의 극초대형선 등장이 예견됨에 따라 항만관련 기술들의 고생산성화, 첨단화, 자동화, 효율화는 필수적으로 동반되는 미래의 요구사항으로 대두되고 있다. 이러한 급격한 항만환경변화에 대응하기 위해 세계 선진항만운영사와 기업들은 항만산업시장 선점과 기술개발경쟁을 치열하게 벌이고 있다. 국내에서는 기존에 체계적, 분석적, 세부적인 항만기술개발 로드맵이 없어 국가적 항만기술개발 정책의 효율적 추진과 국내 항만관련 산업의 활성화를 이루지 못하고 있다. 따라서 본 연구에서는 세계 항만환경변화 추세를 바탕으로 분야별 국내 항만기술의 개발과제 도출과 개발우선순위를 분석하였고, 분야별/기술별 개발시점에 따른 거시적 로드맵 및 분야별 개발기술에 대한 제품개발과의 연관 로드맵을 수립하였다.

본 연구는 컨테이너 선박의 교체시기를 경제적 관점에서 결정하기 위한 것이다. 특히 컨테이너선에서의 경제수명의 산출을 위한 비용자료에는 수많은 애매성이 존재하였다. 이러한 비용자료에 대한 애매성을 표현하기 위해 퍼지수를 이용하였다. 또한 퍼지수를 이용한 퍼지비용모델을 개발하였고, 기존의 비용모델 보다 더욱 현실적으로 분석하였다. 그리고 다양한 종류의 컨테이너선을 대상으로 제안된 퍼지모델을 이용하여 경제적 수명을 결정하였다.

본 연구의 목적은 21세기 국제물류전략의 근간이 되는 ASEAN과 한국의 주요 컨테이너항만의 경쟁력 파악과 비교ㆍ평가를 통하여 한국항만의 경쟁력 제고를 위한 對 ASEAN에 관한 정책적 시사점을 강구함에 있다. 연구방법론과 범위는 ASEAN과 한국에 있어서 컨테이너항만의 경쟁력이라는 정성적인 속성을 정량화하여 평가하는 계층퍼지 분석(HFP)기법을 도입하여 실증분석을 하였다. 연구의 결과 싱가포르가 1위, 부산과 마닐라항만이 공동 2위의 선두그룹으로 평가되었다. 본 논문의 기여도는 한국과 ASEAN의 항만경쟁력 비교 연구를 통해 사회과학분야의 연구에 적용할 수 있는 HFT방법론을 도입하여 정책수립에 응용한 최신의 실증적인 연구접근에 있다.

In order to deal with the increase of container cargo traffic volume more effectively, the ministry of maritime affairs & fisheries has a long-term plan to develop Gaduk Island. According to the plan, the New Port will handle 4,600,00TEUs annually. The completion of the project will enable the port of Busan to perform as a hub port in the Asia Pacific era of the year 2000 with sufficient port facilities, and this will lead to a new era of oceanic Korea. With the advent of the Pacific Rim Era of the year 2000, Busan metropolis has set a strategic development plan to establish the area as the center of logistics in the noreast Asian region as well as to become the stronghold of economic activity in Korea's southeast region. To this end, industries that will open the doors to a marine era and a new industrial complex focused on logistics are planned in the West Busan area where Gimhae International Airport and the Busan New Port meet. This paper aims to find out the functional relation and complement between the Busan New Port Distri-Park handing container cargo traffic volume and the West Busan Logistics Pa가 handling an air cargo and railroad goods. Especially, paper aims to suggest the West Busan Logistics Park as the efficient management of the container cargo traffic volume due to the Development Plan of the Busan New Port.

For the purpose of analyzing the influence of the recent environmental changes of container logistics system in container terminal, the simulation model of container logistics system on BCTOC is developed in this paper. The simulation model is accomplished by the AweSim simulation language, and the several data which have been used in simulation gained through spot research and basic statistic analysis using the first half of 1998 electronic data in BCTOC. The results of this study are as follows; (1) In the case of BCTOC, the decreasing of container volumes is observed during the first half of 1998 compare with that of 1997. (2) In the container handling service market, the monopolistic market system in the past rapidly diverts to the competition market system from now. (3) From the simulation results, the improving of container logistics system is observed. (4) Because of these results, BCTOC will come to strengthen customer service and competitive power through starting On-Dock service system and operating the team of customer management in the long term.

For the purpose of building the simulation model on cargo handling capacity in container terminal we composed a model of container logistics system which has a 4 subsystem; cargo handling transportation storage and gate complex system. Several data are used in simulation which were gained through a field study and a basic statistic analysis of raw data on BCTOC from January to Jane in 1998. The results of this study are as follows; First average available ratios of each subsystems were 50% for G/C, 57.5% for Y/T, 56% for storage system and 50% for gate complex. And there were no subsystems occurring specific bottleneck. Second comparing the results of simulation to the results of basic statistics analysis we can verifying the suitability of this simulation model. Third comparing the results of this study to the results of existed similar study in 1996, we were able to confirm the changes of container logistics system in BCTOC.

Because of the sharp increase of its export and import container cargo volumes contrast to the lack of related Container Terminal facility, equipment and inefficient procedure, there is now heavy container cargo congestions in Pusan Container Terminal. As a result of such a situation, many container ships avoid their calls into Pusan port. This is a major cause that in tum kads to weakening intemational competitiveness of the Korean industry. This study, therefore, aims are to make a quantitative analysis of Container Terminal System through the computer simulation, especially focusing on its 4 sub-system of a handling system, 'it is checked whether the current operation is being performed effectively through the computer simulation. The overall findings are as folIows; Firstly, average tonnage of the ships visiting the BCTOC was 32,360 G/T in from January '96, to may '96. The average arrival interval and service time of container ships at BCTOC are 5.63 hours and 18.67 hours respectively. Ship's arrival and service pattern at BCTOC was exponential distribution with 95% confidence and Erlang-4 distribution with 99% confidence. Secondly, average waiting time and number of ships was 9.9 hours, 235 ships(38%) among 620 ships. Number of stevedoring container per ship was average 747.7 TED, standard deviation 379.1 TEU and normal distribution with 99% confidence. Thirdly, from the fact that the average storage days of containers at BCTOC are 2.75 days (3.0 days when import, 2.5 days when export). it is founds that most containers were transfered to the off-dock storage areas with the free periods(5 days when import, 4 days when export), the reason for which is considered to be the insufficient storage area at BCTOC. Fourthly, in the case of gate in-out at BCTOC, occupied containers and emptied containers are 89% and 11% respectively in the gate-in, 75% and 25% seperately in the gate-out. Finally, from the quantitative analysis results for container terminal at BCTOC, ship's average wating time of ships was found to be 20.77 hours and berth occupancy rate(σ) was 0.83. 5~6 berths were required in order that the berth occupancy rate(σ) may be maintained up to 60% degree.

Increasing costs and competition in the global trade and transportation arena have led to a search for effient, cost-effective, particularly through the application of computer and information technologies. Most recently the introduction of Electronic Data Interchange(EDI) technologies in both trading and trade facili-tation activitiess have bagun to change the complextion of the international transport space. Korea as well as the other developing countries has become aware of the need to embrace EDI strate-gies in order to maintain a competitive market position with their more technologically advanced neighbou-ring and international trading partners. A way of EDI implementation, KMPA has invested large budgets in the research of the EDI since 1990. As the result of study in EDI of transport, KL-Net(Korea Logistics Network) was organized for the EDI business in cargo logistics. In spite of these KMPA's activities, the development plan of container logistics data interchange is not good and useful. So a new model of EDI in transportation is required by using the concepts of cargo data sharing. The purpose of this paper is to suggest a new way of container logistics data interchange model. This paper therefore analyze the information flow in the current container logistics and find the problem in the area to derive a new model. The followings are the results of this paper : (1) There are many problems and user's requirements in container logistics data interchange in Korea. (2) Many messages of UN/EDIFACT are able to be used in container logistics data interchange. (3) The container cargo data are stored in Container Logistics Network(CL-Net) database. And when necessary by requesting message transmission, the container logistics data interchange is possible. (4) Customs cargo clearance system and PORT-MIS can be linked to CL-Net. If the systems, however, are to introduce EDI in data interchange, the quality of user's software has to be assured.

This paper aims to determining the optimal capacity of Pusan port in view point of Container Physical Distribution cost. It has been established a coast model of the container physical distribution system in Pusan port is composed of 4 sub-systems and in-land transport system. Cargo handling system, transfer & storage system and in-land transport system, and analyzed the cost model of the system. From this analysis, we found that the system had 7 routes including in-land transport by rail or road and coastal transport by feeder ship between Pusan port and cargo owner's door. Though railway transport cost was relatively cheap, but, it was limited to choose railway transport routes due to the introducing of transport cargo allocation practice caused by shortage of railway transport capacity. The physical distribution ost for total import & export container through Pusan port was composed of 4.47% in port entring cost, 12.98% in cargo handling cost, 7.44% in transfer & storage cost and 75.11% in in-land transport cost. Investigation in case of BCTOC verified the results as follows. 1) The optimal level of one time cargo handling was verified 236VAN (377TEU) and annual optimal handling capacity was calculated in 516, 840VAN(826, 944TEU) where berth occupancy is σ=0.6 when regardless of port congestion cost, 2) The optimal level of one time cargo handling was verified 252VAN (403TEU) and annual optimal handling capacity was calculated in 502, 110VAN (803, 376TEU) where berth occupancy is σ=0.58 when considering of port congestion cost.