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MYRRHA home
MYRRHA in brief
Purpose
ADS
Proton accelerator
Spallation
Subcritical core
Applications
ADS Prototype
Irradiation
Medical applications
Proton applications
Education
Transmutation
Requirements
Accelerator
Spallation target
Subcritical core
Fuel
Engineering
Subcriticality
Power
Optimal neutron flux
System design
Accelerator
Selection
Linac
Energy
Neutron yield
Beam shape
Reliability
Spallation target
Liquid metal
Free-surface flow
Heat deposition
Beam-surface interaction
Vacuum compatibility
Flow stability
Subcritical core
Engineering
Diaphragm
Subcritical core
Spallation loop
Primary heat exchangers
In-vessel fuel manipulators
In-vessel interim fuel storage
PbBi conditioning system
In-vessel inspection
Instrumentation and control
Vessels and reactor cover
Materials selection
Material requirements
Common materials
T91 steel
Building
Civil engineering
Site plan
Shielding
Operations
Cycle management
Robotics
Requirements
Primary tasks
Secondary tasks
Recovery tasks
R&D
Main R&D areas
VICE
Free-surface flow
LIDAR
WebExpIr
MEGAPIE
Robotics experiments
Ultrasonic visualisation
Bibliography
Neutronics
Fuel design
Safety
Engineering
Target and spallation
European context
Collaborations
Media gallery
Images
Guinevere
Animations
MYRRHA home
» System design
MYRRHA system design
Accelerator
Spallation target
Subcritical core
Building
Operations
Engineering