Nickel and its alloys

Rosenberg, Samuel

doi:10.6028/nbs.mono.106

Cited by 33 publications

(20 citation statements)

References 63 publications

Supporting

Mentioning

Contrasting

Unclassified

Order By: Relevance

“…A conventional method of pure nickel production is based on a melting process, followed by casting and hot rolling operations. During melting carbon and nickel oxide are added to remove gases [1], silicon is added to decrease the melting point [2], aluminum or titanium are added to deoxidize the melt [3], and manganese or magnesium are added to bond sulfur into globular form [4]. Theoretically, all of those additions should be either outgased or eliminated into a slag.…”

Section: Introduction Methods Of Pure Nickel Primary Materials Producmentioning

confidence: 99%

New Technological Approach in Fabrication of High Purity Nickel Wire

Stuth¹,

Theile²,

Krivtsova³

2017

MSF

View full text Add to dashboard Cite

Abstract.Hpulcas GmbH has developed a process of high purity nickel wire manufacturing directly from cathode plates without melting. This means significantly lower capital investments and energy costs as compared to the standard manufacturing technology by melting on the one hand and remaining of the high degree of purity on the other hand. Hpulcas wire is produced by hot rolling of full cathode plates, slitting of plates into sticks, frontal joining and drawing. High purity nickel has such beneficial properties as micro-cleanliness, excellent mechanical and electrical properties and beneficial corrosion resistance. These properties have been used in batteries and fuel cell components, welding and brazing products, and sensing and controlling instruments.

show abstract

Section: Introduction Methods Of Pure Nickel Primary Materials Producmentioning

confidence: 99%

New Technological Approach in Fabrication of High Purity Nickel Wire

Stuth¹,

Theile²,

Krivtsova³

2017

MSF

View full text Add to dashboard Cite

show abstract

“…Rosenberg (1968) show that Alloy 400 is equally excellent in resisting the less corrosive atmospheres and is markedly superior to nickel in resistance to the industrial atmospheres of Altoona and New York City. According to Rosenberg, Monel Alloy 400 has very good resistance to oxidation at temperatures up to about 900 "F. From 900 to 1300 "F the surface scale is still thin and very adherent, but grain boundary penetration of oxide is evident.…”

Section: Nickel-copper Alloysmentioning

confidence: 99%

“…Following is a summary of the characteristics of the Monel nickel-copper alloy metals compiled by Rosenberg (1968). Monel Alloy 400 gives excellent service in sea or brackish water under high-velocity conditions, as in propellers, impellers, and condenser tubes, where resistance to the effects of cavitation and erosion is important.…”

Section: Nickel-copper Alloysmentioning

confidence: 99%

“…According to Rosenberg (1968), the 70/30 NiCu alloy has the best hightemperature strength of the straight nickel-copper alloys. This alloy also has the greatest resistance to creep.…”

Section: Nickel-copper Alloysmentioning

confidence: 99%

“…According to Rosenberg, Monel Alloy 400 has very good resistance to oxidation at temperatures up to about 900 "F. From 900 to 1300 "F the surface scale is still thin and very adherent, but grain boundary penetration of oxide is evident. Above 1500 T the bulk of the oxide grows rapidly, remains adherent and apparently quite dense, but is poorly protective.According to Rosenberg (1968), the 70/30 NiCu alloy has the best hightemperature strength of the straight nickel-copper alloys. This alloy also has the greatest resistance to creep.…”

mentioning

confidence: 99%

See 2 more Smart Citations

Survey of the degradation modes of candidate materials for high-level radioactive waste disposal containers. Final report

Vinson¹,

Bullen²

1995

View full text Add to dashboard Cite

Tables Figllres 1 2 IntroductionOne of the most signrficant factors impacting the performance of waste package container materials under repository relevant conditions is the thermal environment. This environment will be affected by the areal power density of the repository, which is dictated by facility design, and the dominant heat transfer mechanism at the site. The near-field environment w i l l evolve as radioactive decay decreases the thermal output of each waste package. Recent calculations (Buscheck and Nitao, 1994) have addressed the importance of thermal loading conditions on waste package performance at the Yucca Mountain site. If a relatively low repository thermal loading design is employed, the temperature and relative humidity near the waste package may significantly affect the degradation of corrosion allowance barriers due to moist air oxidation and radiolytically enhanced corrosion.An evolution of the waste package design effort has resulted in an increased emphasis on the performance of the engineered banier system (EBS). The EBS includes the waste package and the near-field engineered repository environment. This evolution has prompted research and analysis related to the development of a multiple barrier Advanced Conceptual Design (ACD) for the waste package disposal container. The ACD systems currently under consideration consist of a multiple barrier design. The outer barrier w i l l be fabricated from a corrosion allowance material, such as carbon steel. The inner barrier will employ a corrosion resistant material, such as Alloy 825. The thickness of each barrier is currently a variable in the container design process. The predicted long-term performance of each banier material under repository relevant conditions will dictate the ultimate thicknesses of each barrier. Degradation modes surveys for Alloy 825 (Fanner, et al., 1988 and Gdowski, 1991) and carbon steel (Vinson, et ai ., 1995) have been completed previously.A significant factor related to repository thermal performance that impacts the degradation of the container is the time period over which each container is predicted to remain dry. During this time period, a majority of the degradation of the container will occur due to simple moist air oxidation. However, current repository thermal designs include a lower thermal loading option which may result in container surface temperatures dropping below the boiling point of water in relatively short times following emplacement. This could result in a sigmficantly more ag,sressive corrosion environment for the corrosion allowance material employed in the waste container. Various options addressing this potentially more aggressive environment are currently 1 being considered. These options may employ an additional outer barrier that is moderately corrosion resistant under expected low thermal loading repository conditions or replacement of the carbon steel corrosion allowance barrier with a more corrosion resistant material, such as a nickel-copper alloy (Monel400).The est...

show abstract

Nickel Alloys

Strassburg¹

2000

Ullmann's Encyclopedia of Industrial Chemistry

View full text Add to dashboard Cite

The article contains sections titled: 1. Introduction 2. Wrought Nickel 3. Nickel ‐ Iron Alloys 4. Nickel ‐ Copper Alloys 5. Nickel ‐ Chromium Alloys 6. Nickel Casting Alloys 7. Welding Filler Metals for Nickel Alloys 8. Nickel Brazing Alloys 9. Fabrication of Nickel‐Base Alloys

show abstract

Nickel and its alloys

Cited by 33 publications

References 63 publications

New Technological Approach in Fabrication of High Purity Nickel Wire

New Technological Approach in Fabrication of High Purity Nickel Wire

Survey of the degradation modes of candidate materials for high-level radioactive waste disposal containers. Final report

Nickel Alloys

Contact Info

Product

Resources

About