3 edition of Technical assessment of vanadium-base alloys for fusion reactor applications found in the catalog.
Technical assessment of vanadium-base alloys for fusion reactor applications
United States. Dept. of Energy.
by Dept. of Energy, for sale by the National Technical Information Service in Washington, Springfield, Va
Written in English
|Statement||R. E. Gold ... [et al.], Westinghouse Electric Corporation, Fusion Power Dept|
|Series||COO ; 4540-1 (v.1)|
|Contributions||Gold, R. E, United States. Dept. of Energy. Materials and Radiation Effects Branch, Westinghouse Electric Corporation. Fusion Power Systems Dept|
|The Physical Object|
New tungsten alloy: potential material for fusion reactors. The ITER International School aims to prepare young scientists/engineers for work in the field of nuclear fusion and in research applications associated with the ITER Project. is the development of excellence in research in fusion science and technology within the ITER framework. Vanadium alloys exhibit important advantages as a candidate structural material for fusion first-wall/blanket applications. These advantages include high temperature and high wall load capability, favorable safety and environmental features, resistance to irradiation damage, and alloys of interest are readily fabricable. A substantial data base has been developed on laboratory-scale heats of V Cited by:
The indicator radionuclide31Si produced in neutron and deuteron activation analysis for silicon via the reactions30Si(n,γ) and30Si(d,p), respectively, is specifically separated from the irradiated sample by distillation as31SiF4. In the case of aluminium, the distillation is carried out from a HF(HNO3)H2O2 medium and in the case of molybdenum, niobium, tantalum, titanium and vanadium Cited by: 9. vanadium alloy (vcr-5ti) Vanadium-based alloys are considered promising candidate structural materials for fusion in-vessel first wall and blanket applications. Although the data base is limited compared to other leading candidate structural materials, such as austenitic and martensitic steels, vanadium-based alloys exhibit several.
The working conditions are considered for pin sheath materials for future fast-neutron reactors, as well as the scope for using various classes of material for the sheaths. Alloys of vanadium with titanium and chromium are found to have advantages for these by: 9. Development of reduced-activation martensitic 9Cr steels for fusion reactor. Journal of Nuclear Science And Technology, 4 (31): - , A Alamo, V Lambard, X Averty, and M H Mathon. Assessment of ODS%Cr ferritic alloy for high temperature applications. Journal of Nuclear Materials, - - ,
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Vanadium-base alloys offer potentially significant advantages over other candidate alloys as a structural material for fusion reactor first wall/blanket applications.
Although the data base is more limited than that for the other leading candidate structural materials, viz., austenitic and ferritic steels, vanadium-base alloys exhibit several properties that make them particularly attractive for the fusion reactor by: Get this from a library. Technical assessment of vanadium-base alloys for fusion reactor applications: final report.
[R E Gold; United States. Department of Energy.; Westinghouse Electric Corporation. Fusion Power Systems Department.]. “Technical Assessment of Vanadium-Base Alloys for Fusion Reactor Applications Final Report,” Report C, vol.
2 (Pittsburgh, PA: Westinghouse Electric Corporation, ). R.E. Gold and D.L. Harrod, “Refractory Metal Alloys for Fusion Reactor Applications,” J. Nucl. Metals., 85–86 (), p. Cited by: Journal of Nuclear Materials & () North-Holland, Amsterdam APPLICATION OF VANADIUM AND VANADIUM ALLOYS TO A FUSION REACTOR BLANKET J.
BETHIN and A. TOBIN Grumman Aerospace Corporation, Research and Development Center, Bethpage, New York * Vanadium and vanadium alloys are of interest in fusion reactor blanket applications due to Cited by: 7.
Vanadium-base alloys exhibit physical properties that are favorable for the fusion first-wall applications. Table 2 lists selected physical properties for the vanadium alloys compared to the austenitic (Type ) and ferritic/martensitic (HT-9) steels.
In addition to the high melting temperature (∼°C higher than the steels), vanadium alloys have a lower coefficient of thermal expansion, a Cited by: Journal of Nuclear Materials 85 & 86 () North-Holland Publishing Company REFRACTORY METAL ALLOYS FOR FUSION REACTOR APPLICATIONS R.
GOLD AND D. HARROD Westinghouse Research Laboratories, Pittsburgh, PAUSA The properties and general characteristics of alloys of the refractory metals V, Nb, and Mo are reviewed in terms of the materials requirements for fusion reactor Cited by: R.C.
Svedberg A technical assessment of vanadium and vanadium-base alloys for fusion reactor applications has been carried out. The major objective of this assessment was the development of an. V–4Cr–4Ti alloys have been identified as the reference material for fusion reactor applications.
One of the main issues of using them at elevated temperatures is their high affinity with. The fabricability and tensile properties of solid-solution-strengthened vanadium-base binary alloys containing aluminium, titanium, niobium, tantalum, chromium, molybdenum or iron were studied.
The alloys were prepared by non-consumable arc melting and contained – ppm O, 20– ppm N and 40– ppm by: 9. Reduced Activation Materials for Fusion Reactors ASTM STP Issue of ASTM special technical publication, American Society for Testing and Materials, ISSN Volume of ASTM, STP Journal of ASTM International: Selected technical papers Volume of STP / ASTM STP Reduced activation materials for fusion reactors: Author: R.
Vanadium-base alloys are promising candidate material for application in fusion reactor first wall and blanket structure because of several important advantages, i.e., inherently low irradiation-induced activity, good mechanical properties, good compatibility with lithium, high thermal conductivity, and good resistance to irradiation-induced swelling and damage.
Covers the use of steels and other structural alloys in current fission technology, leading edge Generation-IV fission reactors, and future fusion power reactors. Provides a critical and comprehensive review of the state-of-the-art experimental knowledge base of reactor materials, for applications ranging from engineering safety and lifetime.
Present status of vanadium alloys for fusion applications Article in Journal of Nuclear Materials (s 1–3)– December with Reads How we measure 'reads'.
An Assessment of Titanium Alloys for Fusion Reactor First-Wall and Blanket Applications, EPRI-RP Project Final Report (), Electric Power Research Institute.
Buckman, Jr., and R. Svedberg, Technical Assessment of Vanadium-Base Alloys for Fusion Reactor, in: Alloy Development for Irradiation Performance, Quarterly Progress Author: J. Adrian Roberts.
Various vanadium alloys are being developed as one of the options of structural materials for advanced blankets of fusion reactors. Besides the large heats made in Japan and US, a kg V-4Cr-4Ti. Vanadium-base alloys are promising candidate materials for application in fusion reactor first-wall and blanket structures because they offer several important advantages, i.e., inherently low irradiation-induced activity, good mechanical properties, good compatibility with lithium, high thermal conductivity, and good resistance to irradiation-induced swelling and damage.
In the future fusion reactor, plasma is confined by using the magnetic field inside the doughnut-shaped vacuum vessel. The blanket is in a location where it almost touches the plasma, and as if to enfold the plasma the blanket is placed on the inner surface of the vacuum chamber.
The blanket, by absorbing the high-speed particles generated by the fusion reaction inside the plasma, releases. Vanadium-base alloys have been identified as an attractive high performance first-wallhlanket structural/material for fusion power plant applications[ Considerable progress has been made on the development of vanadium alloys for the fusion applications even though the effort is only aCited by: 1.
Get this from a library. Alloys for the fusion reactor environment: a technical assessment. [United States. Division of Magnetic Fusion Energy,; United States. Department of Energy.]. Status of R&D Activities on Materials for Fusion Power Reactors Article (PDF Available) in Nuclear Fusion 47(10):SS October with Reads How we measure 'reads'.
A V-4Cr-4Ti alloy has been selected in the U.S. as the current leading candidate vanadium alloy for future use in fusion reactor structural applications. General Atomics (GA), in conjunction with the Department of Energy`s (DOE) DIII-D Program, is carrying out a plan for the utilization of this vanadium alloy in the DIII-D tokamak.Abstract Vanadium-base alloys are promising candidate materials for application in fusion reactor first-wall and blanket structure because of several important advantages, i.e., inherently low irradiation-induced activity, good mechanical properties, good compatibility with lithium, high thermal conductivity, and good resistance to irradiation-induced swelling and damage.Vanadium alloys exhibit important advantages as a candidate structural material for fusion first wall/blanket applications.
These advantages include fabricability, favorable safety and environmental features, high temperature and high wall load capability, and long lifetime under irradiation. Vanadium alloys with ()% chromium and ()% titanium appear to offer the best combination of properties for first wall/blanket applications.