ITER Engineering Basis Handbook

Under the editorial lead of EUROfusion, the ITER Engineering Basis Handbook delivers a stand-alone compilation of ITER design principles, the underlying technical design basis and its evolution from conception to construction, together with the technical, scientific, and regulatory rationale behind the major decisions. It facilitates the access and understanding of the project’s technological journey by consolidating the information from a multitude of sources. It aims at securing the lessons learned, the return of experience, and the knowledge transfer from the world's largest fusion project, drawing from the direct experience of knowledgeable experts who have worked on ITER, for the benefit of fusion professionals inside and outside of the ITER project and the next generation.

We welcome your feedback! Readers are invited to help shape the next versions of these chapters by submitting comments and suggestions to @email.

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TitleReferenceStatus
Vol. 1 – Genesis, Design and Evolution
Ch. 1 - ForewordITR-IEBH-101Available v.1.0
Ch. 2 - AcknowledgementsITR-IEBH-102Available v.1.0
Ch. 3 - IntroductionITR-IEBH-103Available v.1.0
Ch. 4 - The role and distinctive features of ITERITR-IEBH-104Available v.1.0
Ch. 5 - ITER key historical events To be published soon
Ch. 6 - Project genesis & evolution Expected 2026
Ch. 7 - ITER design evolution and technology maturation Expected 2026
Ch. 8 - Managing the design & construction of ITER Expected 2026
Ch. 9 - Gaps to fill beyond ITER To be published soon
Ch. 10 – Final observations and lessons learned Expected 2026
Vol. 2 – Anatomy of the Plant 
Ch. 1 - Foreword Expected 2026
Ch. 2 - Acknowledgements Expected 2026
Ch. 3 - Introduction Expected 2026
Ch. 4 - Physics basis & design implications Expected 2026
Ch. 5 - Overview of the ITER plant Expected 2026
     5.1     Tokamak basic machine design Expected 2026
     5.2     Plant layout and site services  Expected 2026
     5.3     Nuclear buildings  Expected 2026
     5.4     Hot cell Expected 2026
     5.5     Main loads: plant and systems level Expected 2026
     5.6     The inner surface of the tokamak: plasma-facing materials Expected 2026
     5.7     Finding and qualifying the right materials Expected 2026
     5.8     Radiation shielding and nuclear design considerations Expected 2026
     5.9     Nuclear safety  Expected 2026
     5.10     Fuel cycle subjects Expected 2026
     5.11     Radioactive waste Expected 2026
     5.12     The assembly sequence and tooling of ITER Expected 2026
     5.13     RAMI and remote handling approach  Expected 2026
     5.14     Design methodologies and tools (codes & standards) Expected 2026
     5.15     Managing of analyses Expected 2026
     5.16     Engineering instrumentation & simulation Expected 2026
Ch. 6 - All the pieces of the puzzle Expected 2026
     6.1     Magnet systems including vessel coils To be published soon
     6.2     Vacuum vessel  Expected 2026
     6.3     First wall & shielding blanket  Expected 2026
     6.4     Blanket cooling manifolds Expected 2026
     6.5     Divertor Expected 2026
     6.6     Auxiliary heating systems Expected 2026
     6.7     Power supply systems Expected 2026
     6.8     Cryogenic systems Expected 2026
     6.9     Cryostat  Expected 2026
     6.10     Thermal shields Expected 2026
     6.11     Cooling water systems Expected 2026
     6.12     Fuelling systems Expected 2026
     6.13     Vacuum and pumping systems  Expected 2026
     6.14     Fuel cycle and tritium plant Expected 2026
     6.15     Remote handling systems and tools Expected 2026
     6.16     Plasma diagnostics and port plug integration Expected 2026
     6.17     ITER central control and plant system integration Expected 2026
     6.18     The ITER Test Blanket Module Program Expected 2026
Ch. 7 - Conclusions Expected 2026