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gained substantial interest

Molten salt reactors have gained substantial interest in the last years due to their flexibility and their potential for simplified closed fuel cycle operations for massive net-zero energy production.

Innovative Investigation of Reflector Options for the Control of a Chloride-Based Molten Salt Zero-Power Reactor

gained substantial interest

Molten salt reactors have gained substantial interest in the last years due to their flexibility and their potential for simplified closed fuel cycle operation for massive expansion in low-carbon electricity production, which will be required for a future net-zero society.

On the Dimensions Required for a Molten Salt Zero Power Reactor Operating on Chloride Salts

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Molten Salt Reactors

In this paper we discuss the development of such methods in addition to species transport for liquid fueled molten salt reactors (MSRs).

MATRIX EXPONENTIAL METHODS FOR PARALLEL COMPUTING OF ISOTOPIC DEPLETION AND SPECIES TRANSPORT FOR MOLTEN SALT REACTOR ANALYSIS

Molten Salt Reactors

The production of radionuclides 90 Sr and 131 I in molten salt reactors is an attractive option to address the global shortage of radionuclides.

Study on the production characteristics of 131I and 90Sr isotopes in a molten salt reactor

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10.1016/J.ANUCENE.2021.108546

A new approach is proposed to evaluate the safety of molten-salt reactors (MSRs), using advanced modeling and simulation (M&S) tools.

A workflow leveraging MOOSE transient multiphysics simulations to evaluate the impact of thermophysical property uncertainties on molten-salt reactors

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10.1080/00295450.2020.1843348

Advanced reactor concepts span the spectrum from heat pipe–cooled microreactors, through thermal and fast molten-salt reactors, to gas- and salt-cooled pebble bed reactors.

Rattlesnake: A MOOSE-Based Multiphysics Multischeme Radiation Transport Application

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What is/are Salt Reactors?

Salt Reactors - A new approach is proposed to evaluate the safety of molten-salt reactors (MSRs), using advanced modeling and simulation (M&S) tools. [1] Advanced reactor concepts span the spectrum from heat pipe–cooled microreactors, through thermal and fast molten-salt reactors, to gas- and salt-cooled pebble bed reactors. [2]

gained substantial interest

Molten salt reactors have gained substantial interest in the last years due to their flexibility and their potential for simplified closed fuel cycle operations for massive net-zero energy production. [1] Molten salt reactors have gained substantial interest in the last years due to their flexibility and their potential for simplified closed fuel cycle operation for massive expansion in low-carbon electricity production, which will be required for a future net-zero society. [2] Molten salt reactors have gained substantial interest in recent years due to their flexibility and their potential for simplified closed fuel cycle operation for massive net-zero energy production. [3]

Molten Salt Reactors

In this paper we discuss the development of such methods in addition to species transport for liquid fueled molten salt reactors (MSRs). [1] The production of radionuclides 90 Sr and 131 I in molten salt reactors is an attractive option to address the global shortage of radionuclides. [2] The rasterized CMFD method is implemented in a 2D neutron transport MOC code ThorMOC which has been developed to perform the high-fidelity criticality calculation for channel type molten salt reactors (MSRs). [3] Uranium tetrafluoride (UF4) is a critical compound in the nuclear fuel cycle, particularly as an intermediate in uranium hexafluoride (UF6) and uranium metal production, and as a fuel for fluoride-based molten salt reactors. [4] Ni-Mo-SiCNP alloy is a promising candidate as a structural material for building high-temperature molten salt reactors in the future. [5] The elevated temperatures and corrosive environment typical of molten salt reactors’ operating conditions may pose challenges to flow and temperature measurements. [6] Molten salt reactors (MSRs) have the potential to safely support green energy goals while meeting baseload energy needs with diverse energy portfolios. [7] The Printed Circuit Heat Exchanger (PCHE) is considered promising as an intermediate heat exchanger for Molten Salt Reactors (MSRs) due to its highly compact construction, high heat transfer effectiveness, and capability of withstanding high pressures. [8] Molten salt reactors (MSRs) are being investigated as a possible source of 99Mo for medical uses. [9] The scenarios considered include a step reactivity insertion and a pump trip for the molten salt reactors. [10] Eutectic LiCl-KCl molten salt is often used in molten salt reactors as the primary coolant due to its high thermal capacity and high solubility of fission products. [11] For the successful operation of high temperature Molten Salt reactors (MSR), comprehensive information on the thermodynamic properties of multi-component fluoride fuel salt systems is required. [12] Some general considerations for source terms calculation for Molten Salt Reactors (MSRs) are explained. [13] Molten salt reactors have gained substantial interest in the last years due to their flexibility and their potential for simplified closed fuel cycle operations for massive net-zero energy production. [14] Despite surging interest in molten salt reactors and thermal storage systems, knowledge of the physicochemical properties of molten salts are still inadequate due to demanding experiments that require high temperature, impurity control, and corrosion mitigation. [15] The deployment of molten salt reactors requires validation of the computational tools used to support the licensing process. [16] The operational and safety features of Small Modular Reactors and Molten Salt Reactors address decision criteria differently than the common and traditional Light Water Reactors (LWR). [17] This work is part of the ongoing international efforts to explore and identify the applicability of current methods and codes for FHR simulations and molten salt reactors in general. [18] The paper presents the potential of the application of a printed circuit heat exchanger (PCHE) on small modular molten salt reactors (MSR) for the military. [19] Molten salt reactors as liquid-fuelled reactors are flexible in terms of operation or design choices, but they are very different in terms of design, operation and safety approach compared to solid-fuelled reactors. [20] Molten salt reactors have gained substantial interest in the last years due to their flexibility and their potential for simplified closed fuel cycle operation for massive expansion in low-carbon electricity production, which will be required for a future net-zero society. [21] Molten Salt Reactors are Gen-IV reactors that use liquid fuel. [22] Accordingly, in this study, an optimal design scheme for Fractional Order Fuzzy Proportional Integral Derivative (FOFPID) controller with adoption of Cuckoo Search (CS) optimization algorithm is presented in order to examine the application of the FOFPID in the core power control of molten salt reactors (MSRs) as an example. [23] Molten salt reactors have the potential to be employed as the power system for space exploration machines due to their advantage in the scale and power density. [24] In the future, it will be used for the other molten salt reactors, for which interests of science and industry is growing. [25] For liquid metal and molten salt reactors, ATHLET has some basic capabilities. [26] This work aims at comparing molten salt reactors (MSR) with PWR for merchant ship propulsion. [27] The goal of this work was to calculate the impact of the delayed neutron precursor drift in fast spectrum Molten Salt Reactors (MSRs) using coupled solutions from the neutronics code PROTEUS and the computational fluid dynamics code Nek5000. [28] The molten salt leakage accident is an important issue in the nuclear safety analysis of molten salt reactors. [29] Purpose Concentrated solar power and molten salt reactors use molten salts for heat energy storage and transfer. [30] Molten salt reactors (MSRs) utilize salts as coolant or as the fuel and coolant together with fissile isotopes dissolved in the salt. [31] Molten Salt Reactors © Thomas J. [32] , FLiBe) from molten salt reactors. [33] Breed-and-burn Molten Salt Reactors are an interesting option of reactor design that allow high fuel utilization while operating on an open fuel cycle. [34] The densified graphite was evaluated as a potential fuel element material for molten salt reactors (MSRs). [35] The natural circulation systems have been widely applied to various technologies, for example, safety systems in molten salt reactors. [36] In this work, gaining a fundamental mechanistic understanding of the molten salt dealloying process in forming porous structures provides a nontoxic, tunable dealloying technique and has important implications for molten salt corrosion processes, which is one of the major challenges in molten salt reactors and concentrated solar power plants. [37] The neutronic properties of molten salt reactors (MSRs) differ from those of traditional solid fuel reactors owing to their nuclear fuel particularity. [38] Thorium as a potential nuclear fuel for the next-generation thorium-based molten salt reactors holds significant environmental and economic promise over the current uranium-based nuclear reactors. [39] This paper shows examples of older reactors in each of the reemerging SMR concepts of integrated pressurized water reactors, high temperature gas cooled reactors, molten salt reactors, and liquid metal cooled fast reactors. [40] In this work, the modified quasi-chemical model in the quadruplet approximation was used to develop new thermodynamic modelling assessments of the binary solutions, which are highly relevant in assessing the corrosion process in molten salt reactors. [41] In the current work, we introduce a new criterion for transmutation efficiency of MAs in nuclear reactors and demonstrate its efficiency by comparing two molten salt reactors; the Single-fluid Double-zone Thorium-based Molten Salt Reactor (SD-TMSR) and the Small Molten Salt Fast Reactor (SMSFR). [42] This paper presents the PROTEUS-NODAL capabilities developed for modeling and simulation of molten salt reactors (MSRs) with flowing fuel. [43] Molten salt reactors have gained substantial interest in recent years due to their flexibility and their potential for simplified closed fuel cycle operation for massive net-zero energy production. [44] Molten Salt Reactors (MSRs) are one of six Generation IV reactor designs currently under development around the world. [45] Recent studies on Molten Salt Reactors (MSRs) showed that the excess reactivity at the beginning of the operation is large for many fueling strategies and must be compensated by a reactivity control system. [46] With the resurgence of interest in molten salt reactors, there is a need for new experiments and modeling capabilities to characterize the unique phenomena present in this fluid fuel system. [47] Molten salt reactors (MSRs) are gaining support as many countries look for ways to increase power generation and replace aging nuclear energy production facilities. [48] Carbon fiber (CF)/pyrolytic graphite (PG) composites are promising structural materials for molten salt reactors because of their superior performance. [49] Molten LiF–BeF2 (FLiBe) eutectic (67 mol% LiF and 33 mol% BeF2) plays the fundamental role in the molten salt reactors (MSRs). [50]