Patent Number: 
Section: claims

1. A computer-implemented method comprising:receiving at least one reactor core parameter distribution associated with a state of a core of a reference nuclear reactor;generating an initial fuel loading distribution for a simulated beginning-of-cycle (BOC) core of a nuclear reactor, the simulated BOC core of the nuclear reactor including a simulated beginning-of-life (BOL) core of the nuclear reactor;selecting an initial set of positions associated within a set of regions within the simulated BOC core of the nuclear reactor, wherein the initial set of positions correspond to the set of regions;generating an initial set of fuel design parameter values utilizing at least one design variable of at least one of the set of regions;calculating at least one reactor core parameter distribution of the simulated BOC core utilizing the initial set of fuel design parameter values associated with the set of regions located at the initial set of positions of the simulated BOC core;generating a loading distribution by performing at least one perturbation process on the set of regions of the simulated BOC core in order to determine a subsequent set of positions for the set of regions within the simulated BOC core; andcausing a fuel handler to arrange one or more fuel assemblies in a core of the nuclear reactor according to the loading distribution. 2. The method of claim 1, wherein the receiving the at least one reactor core parameter distribution associated with the state of the core of the reference nuclear reactor includes:receiving at least one reactor core parameter distribution associated with an equilibrium state of the core of the reference nuclear reactor. 3. The method of claim 1, wherein the reference nuclear reactor includes:at least one of a reference thermal nuclear reactor, a reference fast nuclear reactor, a reference breed-and-burn nuclear reactor, or a reference traveling wave reactor. 4. The method of claim 1, wherein the core of the reference nuclear reactor includes:at least one fuel assembly. 5. The method of claim 4, wherein the at least one fuel assembly of the core of the reference nuclear reactor includes at least one pin. 6. The method of claim 1, wherein the at least one reactor core parameter distribution associated with the state of the core of the reference nuclear reactor includes:at least one of a power density distribution, a rate of change of a power density distribution, a reactivity distribution, or a rate of change of a reactivity distribution associated with the state of the core of the reference nuclear reactor. 7. The method of claim 1, wherein at least a portion of the BOC core includes at least one of recycled nuclear fuel, unburned nuclear fuel, or enriched nuclear fuel. 8. The method of claim 1, wherein the generating an initial fuel loading distribution for a simulated beginning-of-cycle (BOC) core of a nuclear reactor includes:randomly generating the initial fuel loading distribution for the simulated BOC core of the nuclear reactor. 9. The method of claim 1, wherein the simulated BOC core of the nuclear reactor includes a plurality of simulated fuel assemblies. 10. The method of claim 1, wherein the at least one of the set of regions encompasses at least one fuel assembly. 11. The method of claim 1, wherein the at least one of the set of regions is a three-dimensional region having at least one of a selected volume, a selected shape, or a selected number of regions. 12. The method of claim 1, wherein the at least one design variable of the at least one of the set of regions includes a thermodynamic variable of the at least one of the set of regions. 13. The method of claim 1, wherein the generating the initial set of fuel design parameter values utilizing the at least one design variable of the at least one of the set of regions includes:generating the initial set of fuel design parameter values utilizing a neutronic parameter of the at least one of the set of regions. 14. The method of claim 13, wherein the utilizing the neutronic parameter of the at least one of the set of regions includes:generating the initial set of fuel design parameter values utilizing a k-infinity value of the at least one of the set of regions. 15. The method of claim 1, wherein the generating the initial set of fuel design parameter values utilizing the at least one design variable of the at least one of the set of regions includes:generating an initial set of enrichment values utilizing the at least one design variable of the at least one of the set of regions. 16. The method of claim 1, wherein the generating the initial set of fuel design parameter values utilizing the at least one design variable of the at least one of the set of regions includes:generating an initial set of pin dimension values associated with a set of pins of a fuel assembly of the simulated BOC core of the nuclear reactor utilizing the at least one design variable of the at least one of the set of regions. 17. The method of claim 16, wherein the generating the initial set of pin dimension values associated with the set of pins of the fuel assembly of the simulated BOC core of the nuclear reactor utilizing the at least one design variable of the at least one of the set of regions includes:generating at least one of an initial set of pin configuration values, an initial set of pin geometry values, or an initial set of pin composition values associated with the set of pins of the fuel assembly of the simulated BOC core of the nuclear reactor utilizing the at least one design variable of the at least one of the set of regions. 18. The method of claim 1, wherein the at least one design variable of the at least one of the set of regions includes:at least one design variable of each of a set of pins of the set of regions, wherein each of the initial set of fuel design parameter values is associated with one of the set of regions of the simulated BOC core of the nuclear reactor. 19. The method of claim 18, wherein each of the initial set of fuel design parameter values is associated with one of the pins of the at least one of the set of regions of the simulated BOC core of the nuclear reactor. 20. The method of claim 1, wherein the calculating the at least one reactor core parameter distribution of the simulated BOC core utilizing the initial set of fuel design parameter values associated with the set of regions located at the initial set of positions of the simulated BOC core includes:calculating at least one of a power density distribution, a rate of change of a power density distribution, a reactivity distribution, or a rate of change of a reactivity distribution of the simulated BOC core utilizing the initial set of fuel design parameter values associated with the set of regions located at the initial set of positions of the simulated BOC core. 21. The method of claim 1, wherein the subsequent set of positions define the loading distribution for the simulated BOC core. 22. The method of claim 1, wherein the subsequent set of positions reduce a deviation metric between the at least one reactor core distribution of the simulated BOC core and the received at least one reactor core parameter distribution associated with the state of the core of the reference nuclear reactor below a selected tolerance level. 23. The method of claim 1, further comprising:reporting the subsequent set of positions of the set of regions of the simulated BOC core. 24. A non-transitory computer-readable medium comprising program instructions, wherein the program instructions are executable to:receive at least one reactor core parameter distribution associated with a state of a core of a reference nuclear reactor;generate an initial fuel loading distribution for a simulated beginning-of-cycle (BOC) core of a nuclear reactor, the simulated BOC core of a nuclear reactor including a simulated beginning-of-life (BOL) core of the nuclear reactor;select an initial set of positions associated with a set of regions within the simulated BOC core of the nuclear reactor, wherein the initial set of positions correspond to the set of regions;generate an initial set of fuel design parameter values utilizing at least one design variable of at least one of the set of regions;calculate at least one reactor core parameter distribution of the simulated BOC core utilizing the initial set of fuel design parameter values associated with the set of regions located at the initial set of positions of the simulated BOC core;generate a subsequent loading distribution by performing at least one perturbation process on the set of regions of the simulated BOC core in order to determine a subsequent set of positions for the set of regions within the simulated BOC core; andcause a fuel handler to arrange one or more fuel assemblies in a core of the nuclear reactor according to the subsequent loading distribution. 25. A system comprising:a controller including one or more processors operable to execute program instructions maintained on a non-transitory computer-readable medium, the program instructions configured to:receive at least one reactor core parameter distribution associated with a state of a core of a reference nuclear reactor;generate an initial fuel loading distribution for a simulated beginning-of-cycle (BOC) core of a nuclear reactor;select an initial set of positions associated with a set of regions within the simulated BOC core of the nuclear reactor, each of the initial set of positions corresponding to one of the set of regions;generate an initial set of fuel design parameter values utilizing at least one design variable of at least one of the set of regions, wherein each of the initial set of fuel design parameter values is associated with one of the set of regions of the simulated BOC core of the nuclear reactor;calculate at least one reactor core parameter distribution of the simulated BOC core utilizing the initial set of fuel design parameter values associated with the set of regions located at the initial set of positions of the simulated BOC core;generate a subsequent loading distribution by performing at least one perturbation process on the set of regions of the simulated BOC core in order to determine a subsequent set of positions for the set of regions within the simulated BOC core, the subsequent set of positions defining the loading distribution for the simulated BOC core, wherein the subsequent set of positions reduce the difference between the at least one reactor core parameter distribution of the simulated BOC core and the received at least one reactor core parameter distribution associated with the state of the core of the reference nuclear reactor below a selected tolerance level; andcause a fuel handler to arrange one or more fuel assemblies in a core of the nuclear reactor according to the subsequent loading distribution. 26. The system of claim 25, wherein the at least one reactor core parameter distribution is associated with an equilibrium state of the core of the reference nuclear reactor. 27. The system of claim 25, wherein the reference nuclear reactor comprises at least one of a reference thermal nuclear reactor, a reference fast nuclear reactor, a reference breed-and-burn nuclear reactor, or a reference traveling wave reactor. 28. The system of claim 25, wherein the at least one reactor core parameter distribution associated with the state of the core of the reference nuclear reactor includes:at least one of a power density distribution, a rate of change of the power density distribution, a reactivity distribution, or a rate of change of the reactivity distribution associated with the state of the core of the reference nuclear reactor. 29. The system of claim 25, wherein the reference nuclear reactor includes at least one fuel assembly. 30. The system of claim 25, wherein the reference nuclear reactor comprises at least one fuel assembly including at least one fuel pin. 31. The system of claim 25, wherein at least a portion of the simulated BOC core includes at least one of recycled nuclear fuel, unburned nuclear fuel, or enriched nuclear fuel. 32. The system of claim 25, wherein the simulated BOC core includes a plurality of simulated fuel assemblies. 33. The system of claim 25, wherein the generating the initial set of fuel design parameter values utilizing the at least one design variable of the at least one of the set of regions includes:utilizing a thermodynamic variable of the at least one of the set of regions. 34. The system of claim 25, wherein the generating the initial set of fuel design parameter values utilizing the at least one design variable of the at least one of the set of regions includes utilizing a neutronic parameter of the at least one of the set of regions. 35. The system of claim 34, wherein the utilizing the neutronic parameter of the at least one of the set of regions includes utilizing a k-infinity value of the at least one of the set of regions. 36. The system of claim 25, wherein the generating the initial set of fuel design parameter values utilizing the at least one design variable of the at least one of the set of regions includes:generating an initial set of enrichment values utilizing the at least one design variable of the at least one of the set of regions. 37. The system of claim 25, wherein the generating the initial set of fuel design parameter values utilizing the at least one design variable of the at least one of the set of regions includes:generating an initial set of pin dimension values associated with a set of pins of a fuel assembly of the simulated BOC core of the nuclear reactor utilizing at least one design variable of the at least one of the set of regions. 38. The system of claim 25, wherein each of the initial set of fuel design parameter values is associated with one of the set of regions of the simulated BOC core of the nuclear reactor. 39. The system of claim 38, wherein the generating the initial set of fuel design parameter values utilizing the at least one design variable of the at least one of the set of regions includes:utilizing at least one design variable of each of a set of pins of the set of regions, wherein each of the initial set of fuel design parameter values is associated with one of the pins of the one of the set of regions of the simulated BOC core of the nuclear reactor. 40. The system of claim 25, wherein the calculating the at least one reactor core parameter distribution of the simulated BOC core utilizing the initial set of fuel design parameter values associated with the set of regions located at the initial set of positions of the simulated BOC core includes:calculating at least one of a power density distribution, a rate of change of the power density distribution, a reactivity distribution, or a rate of change of the reactivity distribution of the simulated BOC core utilizing the initial set of fuel design parameter values associated with the set of regions located at the initial set of positions of the simulated BOC core. 41. The method of claim 1, wherein causing the fuel handler to arrange the one or more fuel assemblies in the core of the nuclear reactor according to the loading distribution comprises causing the fuel handler to grip a selected fuel assembly and move the selected fuel assembly from a first location to a second location. 42. The non-transitory computer-readable medium of claim 24, wherein the program instructions are executable to cause the fuel handler to arrange the one or more fuel assemblies in the core of the nuclear reactor according to the subsequent loading distribution by causing the fuel handler to grip a selected fuel assembly and move the selected fuel assembly from a first location to a second location. 43. The system of claim 25, wherein the program instructions are configured to cause the fuel handler to arrange the one or more fuel assemblies in the core of the nuclear reactor according to the subsequent loading distribution by causing the fuel handler to grip a selected fuel assembly and move the selected fuel assembly from a first location to a second location.