Structural and mechanical analysis for the optimization of PVD oxide coatings for protection against metal dusting

López, Lanzetta; Salas, O.; Melo-Máximo, L.; Oseguera, J.; Lepienski, C.M.; Soares, Paulo; Torres, Ricardo; Souza, R.M.

doi:10.1016/j.apsusc.2012.03.162

Cited by 7 publications

(2 citation statements)

References 25 publications

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“…[6][7][8][9][10] In some cases, the layers have been deposited on the metal surface using sputtering methods. 11 Also, alloys rich in Cr, Al or Si are more carbon tolerant as these components can form protective oxides at the surface of the alloy. 6 It has also been shown that the addition of sulphur species to the reactive gases can help minimise coking.…”

Section: Introductionmentioning

confidence: 99%

Carbon formation on stainless steel 304H in convection section of ethane cracking plant

Ramezanipour

Singh

Paulson

et al. 2014

Corrosion Engineering, Science and Technology

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The coking of stainless steel 304H alloy (SS304H) has been investigated in ethane-steam mixtures in the presence/absence of a few ppm of H 2 S at 700uC. In this, first detailed study of the influence of H 2 S on carbon morphology on SS304H, we show that the addition of H 2 S greatly altered the carbon morphology, in the long-term experiments (90 h). For shorter exposure times (4 h), carbon formation decreased as H 2 S concentration was increased. This improved carbon tolerance of SS304H is likely due to adsorption of sulphfur on its surface. Addition of H 2 S did not change ethane cracking temperature or product distribution.

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Section: Introductionmentioning

confidence: 99%

Carbon formation on stainless steel 304H in convection section of ethane cracking plant

Ramezanipour

Singh

Paulson

et al. 2014

Corrosion Engineering, Science and Technology

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“…Se utilizó un reactor con un magnetrón con vacío utilizando un blanco de Titanio de 2 pulgadas de diámetro con una pureza de 99.9%, Figura 2. Se realizaron 3 series experimentales para la deposición de las muestras la tabla 2 presenta los valores de los parámetros de deposición de la película de TiN, con base en trabajos anteriores, [6,7].…”

Section: Proceso De Deposición De Recubrimientos Por Pvdunclassified

Formación de películas delgadas base TiN sobre un acero AISI M2 mediante la técnica de PVD

Gómez-Vargas

Oseguera

Domı́nguez

et al. 2015

aactm

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La deposición de películas delgadas de TiN con unos cuantos nanómetros de espesor se llevó a cabo a través de pulverización catódica reactiva de un blanco de Ti en una atmósfera de Ar+N utilizando una fuente de alimentación CC. Las películas depositadas se realizaron sobre probetas de acero AISI M2 cortadas de una barra de 1 a 1.5” de diámetro con espesores máximos de 8 mm. Finalmente, se caracterizaron las capas de TiN empleando diversas técnicas que incluyen: Microscopía Óptica (OM), Microscopía Electrónica de Barrido (SEM) vinculado con la Espectroscopia de Energía Dispersiva (EDS), Pin on disc y Scratch.

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Pyrolysis of 1,2-dichloroethane over Ni–Cr catalyst at resistive heating

Bauman

Сигаева

Mishakov

et al. 2017

Reac Kinet Mech Cat

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Structural and mechanical analysis for the optimization of PVD oxide coatings for protection against metal dusting

Cited by 7 publications

References 25 publications

Carbon formation on stainless steel 304H in convection section of ethane cracking plant

Carbon formation on stainless steel 304H in convection section of ethane cracking plant

Formación de películas delgadas base TiN sobre un acero AISI M2 mediante la técnica de PVD

Pyrolysis of 1,2-dichloroethane over Ni–Cr catalyst at resistive heating

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