Journals / Kocaeli Journal of Science and Engineering / 2026 / Cilt: 2026 Sayı: 17

Energy Consumption Calculations for Mersin International Port and Prospective Future Solution Approaches

Mersin Uluslararası Limanı için Enerji Tüketim Hesaplamaları ve Gelecekteki Çözüm Yaklaşımları

Münir Süner(Tarsus Üniversitesi)0000-0002-3714-7044
Aytekin Sarıca(Ministry of Transport And Infrastructure)0000-0003-4199-9482
Pages
19–28
Publication Date
2026-06-02
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AI Summary & Key Takeaways

AI Insight
⚡ TL;DR(Too Long; Didn't Read)

Ships are categorized into five types which are berthing to MIP—Tankers, General Cargo/Bulk Carrier Ships, Ro-Ro Ships, Container Ships, and Others—and compute ship-specific (AkWh) and total energy consumption (TkWh) using inputs such as quantity per year (P), average gross tonnage (GT), length overall (L), average power acceptance (AkW), and average waiting times for anchorage (AAh) and berthing (ABh).

📌 3 Key Takeaways

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Objective & Hypothesis:Port facilities are a pivotal element of global trade, and when coupled with the energy demands of vessels and port-handling activities, they emerge as a major source of energy consumption.
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Key Findings & Data:This study quantifies the annual energy consumption of oceangoing vessels visiting Mersin International Port (MIP) and of port cranes on a yearly basis, using data from 2021–2023.
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Conclusion & Impact:Ships are categorized into five types which are berthing to MIP—Tankers, General Cargo/Bulk Carrier Ships, Ro-Ro Ships, Container Ships, and Others—and compute ship-specific (AkWh) and total energy consumption (TkWh) using inputs such as quantity per year (P), average gross tonnage (GT), length overall (L), average power acceptance (AkW), and average waiting times for anchorage (AAh) and berthing (ABh).
🔬Design:Modeling & Simulation
📍Scope:2021–2023 Verileri
⚙️Variables:Limanlar · Gemiler · Enerji Verimliliği

Abstract

Port facilities are a pivotal element of global trade, and when coupled with the energy demands of vessels and port-handling activities, they emerge as a major source of energy consumption. This study quantifies the annual energy consumption of oceangoing vessels visiting Mersin International Port (MIP) and of port cranes on a yearly basis, using data from 2021–2023. It also provides forward-looking projections alongside mitigation strategies. Ships are categorized into five types which are berthing to MIP—Tankers, General Cargo/Bulk Carrier Ships, Ro-Ro Ships, Container Ships, and Others—and compute ship-specific (AkWh) and total energy consumption (TkWh) using inputs such as quantity per year (P), average gross tonnage (GT), length overall (L), average power acceptance (AkW), and average waiting times for anchorage (AAh) and berthing (ABh). The analysis employs an Excel-based calculation framework to derive AkWh per ship type and aggregate TkWh for each year. For port cranes, monthly electricity data for 12 QC-STS and 38 RTG cranes has been included, and crane energy have been combined with ship-based consumption. The results show an overall year-on-year rise in energy demand from 2021 to 2023, driven chiefly by increasing ship-related energy use, with container ships identified as the most energy-intensive category. Cranes were found to have a contrasting trend with a reduction in energy consumption over the same period. Key findings include a 75% increase in the average total waiting time (ATh) from 2021 to 2023, a 49% cumulative rise in ship-based energy consumption, and a 45% increase in total energy demand when combining ships and cranes. Container ships were the dominant energy users among ship types, while total crane energy declined slightly. The study highlights that energy growth aligns with rising operational demand and emphasises the potential of targeted mitigation strategies, such as process optimization, congestion management, and adoption of green port practices (e.g., shore-side electricity, slow-steaming, and alternative-fuel-powered handling equipment). Future work should extend the analysis to larger samples and explore factors such as throughput variability, vessel speeds, demand fluctuations and better port management strategies.

Özet

Liman tesisleri küresel ticaretin temel bir unsurudur ve gemilerin ve liman elleçleme faaliyetlerinin enerji talepleriyle bir araya geldiğinde, önemli bir enerji tüketimi kaynağı olarak ortaya çıkarlar. Bu çalışma, 2021-2023 verilerini kullanarak, Mersin Uluslararası Limanı'nı (MIP) ziyaret eden Uzakyol gemilerinin ve liman vinçlerinin yıllık enerji tüketimini ölçmekte ve azaltma stratejileriyle birlikte ileriye dönük projeksiyonlar sunmaktadır. Gemiler, MIP'ye yanaşan Tankerler, Genel Kargo/Dökme Yük Gemileri, Ro-Ro Gemileri, Konteyner Gemileri ve Diğerleri olmak üzere beş türe ayrılmıştır ve yıllık miktar (P), ortalama brüt tonaj (GT), toplam uzunluk (L), ortalama güç kabulü (AkW) ve ortalama demirleme ve yanaşma bekleme süreleri (AAh) gibi girdileri kullanarak gemi özelinde (AkWh) ve toplam enerji tüketimini (TkWh) hesaplamaktadır. Analiz, gemi tipi başına AkWh ve her yıl için toplam TkWh'yi türetmek için Excel tabanlı bir hesaplama çerçevesi kullanır. Liman vinçleri için, 12 QC-STS ve 38 RTG vinci için aylık elektrik verileri dahil edilerek vinç enerjisi gemi bazlı tüketimle birleştirilir. Sonuçlar, 2021'den 2023'e kadar enerji talebinde genel olarak yıllık bazda bir artış olduğunu, bunun başlıca gemiyle ilgili enerji kullanımının artmasıyla yönlendirildiğini ve konteyner gemilerinin en enerji yoğun kategori olarak belirlendiğini göstermektedir. Vinçlerin aynı dönemde enerji tüketiminde bir azalma ile zıt bir eğilim gösterdiği bulunmuştur. Temel bulgular arasında 2021'den 2023'e kadar ortalama toplam bekleme süresinde (ATh) %75'lik bir artış, gemi bazlı enerji tüketiminde %49'luk kümülatif bir artış ve gemiler ve vinçler birleştirildiğinde toplam enerji talebinde %45'lik bir artış yer almaktadır. Konteyner gemileri, gemi tipleri arasında baskın enerji kullanıcılarıyken, toplam vinç enerjisi hafif bir düşüş göstermiştir. Çalışma, enerji büyümesinin artan operasyonel taleple uyumlu olduğunu vurgulamakta ve süreç optimizasyonu, tıkanıklık yönetimi ve yeşil liman uygulamalarının (örneğin kıyı elektriği, düşük buharlı sistem ve alternatif yakıtla çalışan elleçleme ekipmanları) benimsenmesi gibi hedefli azaltma stratejilerinin potansiyelini vurgulamaktadır. Gelecekteki çalışmalar, analizi daha geniş örneklemlere genişletmeli ve verim değişkenliği, gemi hızları, talep dalgalanmaları ve daha iyi liman yönetim stratejileri gibi etkenleri incelemelidir.

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Cite This Article

Süner, M., Sarıca, A. (2026). Energy Consumption Calculations for Mersin International Port and Prospective Future Solution Approaches. Kocaeli Journal of Science and Engineering, Cilt: 2026 Sayı: 17, 19–28. https://doi.org/10.34088/kojose.1790634

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