
원자력추진 잠수함 도입의 작전적 효과: 디젤-전기 잠수함의 한계와 프랑스 사례
†These authors contributed equally to this work.
Ⓒ 2026 Korea Society for Naval Science & Technology
초록
본 연구는 공개자료 기반 시나리오를 통해 디젤-전기, AIP·리튬이온전지 및 원자력추진 잠수함의 전개시간, 현지 작전시간과 스노클 노출을 비교하였다. 분석 결과, AIP는 저속 초계 중 스노클 노출을 줄였으나 원거리 전개의 시간적 제약은 남았다. 반면 원자력추진은 전개시간을 단축하고 현지 작전시간을 확대하는 것으로 나타났다. 또한, 쉬프랑급 사례를 통해 이러한 시간적 이점을 실제 운용 효과로 전환하려면 저소음 추진, 체계통합, 핵연료 관리 및 정비·인력 기반이 함께 확보되어야 함을 시사하였다.
Abstract
This study compared the transit time, on-station time, and snorkeling exposure of diesel–electric-powered, AIP–lithium-ion battery-powered, and nuclear-powered submarines using scenarios based on publicly available data. The results showed that AIP reduced snorkeling exposure during low-speed patrols but did not eliminate the time constraints of long-range transit. By contrast, nuclear propulsion shortened the transit time and increased the on-station time. The Suffren-class case further indicated that translating these time advantages into operational benefits requires low-noise propulsion, system integration, nuclear-fuel management, maintenance infrastructure, and a trained workforce.
Keywords:
Nuclear-Powered Submarine, Diesel-Electric Submarine, Indiscretion Ratio, Suffren Class, Mission Endurance키워드:
원자력추진 잠수함, 디젤-전기 추진 잠수함, 스노클비, 쉬프랑급, 임무 지속능력References
- 국방부, ‘2030년대 중반 ‘핵추진잠수함’ 1번함 진수…국방부, 기본계획 발표,’ 대한민국 정책브리핑, 2026.05.26. https://www.korea.kr/news/policyNewsView.do?newsId=148965136, (accessed 2026.07.27.)
- 강기식, 우승민, ‘한국형 핵추진 잠수함 도입의 기술동향 분석,’ 국방과 기술, NO. 566, 2026, pp. 78-91.
-
Woo Young Jeon, ‘Analysis of Technology Level by Component Technologies of a Submarine System and Recommendations,’ Journal of Korea Academia-Industrial Cooperation Society, VOL. 27, NO. 3, 2026, pp. 169-176.
[https://doi.org/10.5762/KAIS.2026.27.3.169]
-
Won Dug Kim & Ji Young Kang, ‘A Study for Mission-Based Requirements Analysis of Korea Nuclear-Propulsion Submarines (K-SSN),’ Journal of the KNST, VOL. 7, NO. 2, 2024, pp. 130-136.
[https://doi.org/10.31818/JKNST.2024.6.7.2.130]
-
Eugenio Pacelli Lazzarotti Diniz Costa & Domício Proença Jr., ‘Comparing the Effectiveness of Nuclear and Air-Independent Propulsion Submarine Fleets: A Methodology for Alternative Force Design Choices Applied to the Brazilian Case,’ Estudos Internacionais, VOL. 10, NO. 2, 2022, pp. 42-58.
[https://doi.org/10.5752/P.2317-773X.2022v10n2p42-58]
-
Douwe Stapersma & Carel Prins, ‘The Importance of Submarine Air-Independent Power for Operational Agility,’ in Proceedings of the 15th International Naval Engineering Conference & Exhibition (INEC 2020), 2020.
[https://doi.org/10.24868/issn.2515-818X.2020.020]
- Alain Tournyol du Clos, ‘France’s Choice for Naval Nuclear Propulsion: Why Low-Enriched Uranium Was Chosen,’ Federation of American Scientists, 2016.12.06. https://fas.org/publication/frances-choice-for-naval-nuclear-propulsion-why-low-enriched-uranium-was-chosen/, (accessed 2026.07.27.)
- Naval Group, Naval Group Delivers the Fourth Barracuda-Class Nuclear Attack Submarine (SSN), 2026.06.26. https://www.naval-group.com/en/naval-group-delivers-fourth-barracuda-class-nuclear-attack-submarine-ssn, (accessed 2026.07.27.)
- 방위사업청, ‘조선시대 과학기술을 선도한 ‘장영실’, 3,600톤급 잠수함으로 부활,’ 2025.10.22. https://www.dapa.go.kr/dapa/doc/selectDoc.do?bbsSeq=326&docSeq=57611&menuSeq=3069, (accessed 2026.07.27.).
- Marine Nationale, ‘Sous-Marin Nucléaire d’Attaque: Rubis Versus Suffren,’ Ministère des Armées. https://www.defense.gouv.fr/sites/default/files/marine/SNA.pdf, (accessed 2026.07.27.).
- Geoff Slocombe, ‘Air Independent Propulsion Is a Must for Australia’s Next Submarines,’ The Strategist, 2015.06.18. https://www.aspistrategist.org.au/air-independent-propulsion-is-a-must-for-australias-next-submarines/, (accessed 2026.07.27.)
- TKMS Group, HDW Class 214 Next Generation, https://www.tkmsgroup.com/submarines/submarine-classes/hdw-class-214, (accessed 2026.07.27.).
- N. H. D. Gartner, ‘Thermal Behaviour of Lithium-Ion Batteries and the Implications on Submarine System Design,’ Master’s thesis, Delft University of Technology, 2021. https://resolver.tudelft.nl/uuid:f102aa75-fa6a-48d2-83c9-92c9e632ff6a, (accessed 2026.07.27.)
- Naval Group, Naval Group Delivers the Suffren to the French Defence Procurement Agency (DGA), 2020.11.06. https://www.naval-group.com/en/actualites/naval-group-delivers-suffren-french-defence-procurement-agency-dga, (accessed 2026.07.27.)
- Commissariat à l’énergie atomique et aux énergies alternatives, ‘La propulsion nucléaire: Quelques notions,’ IRESNE. https://www.cea.fr/energies/iresne/Pages/L%27institut/Nos%20recherches/Le%20soutien%20%C3%A0%20la%20d%C3%A9fense/Notions.aspx, (accessed 2026.07.27.)
- DCNS, ‘Rapport Financier 2016,’ 2016, p. 9. https://www.naval-group.com/sites/default/files/2020-09/dcns-rapport-financier-2016-FR.pdf, (accessed 2026.07.27.).
-
Xiuchang Huang, Shuaikang Shi, Zhiwei Su, Wanghao Tang, & Hongxing Hua, ‘Reducing Underwater Radiated Noise of a SUBOFF Model Propelled by a Pump-Jet Without Tip Clearance: Numerical Simulation,’ Ocean Engineering, VOL. 243, 2022, Article 110277.
[https://doi.org/10.1016/j.oceaneng.2021.110277]
- Ministry of Defence, Government of India, ‘Antony Commissions Nuclear Submarine ‘INS Chakra’ into Indian Navy,’ Press Information Bureau, April 2012. https://www.pib.gov.in/newsite/erelcontent.aspx?relid=82089, (accessed 2026.07.27.).
- PROSUB (Programa de Desenvolvimento de Submarinos), Transferência de Tecnologia, 2015.12.17. updated March 2022. https://www.marinha.mil.br/prosub/transferencia-de-tecnologia, (accessed 2026.07.27.)
- GOV.UK, ‘Joint Leaders Statement on AUKUS: 13 March 2023,’ 2023.03.13. https://www.gov.uk/government/publications/joint-leaders-statement-on-aukus-13-march-2023/joint-leaders-statement-on-aukus-13-march-2023, (accessed 2026.07.27.).