Publications by authors named "Wilson Handoko"

It is commonly known that precipitation of secondary phase in non-ferrous alloys will affect the mechanical properties of them. But due to the nature of dual-phase low-alloy high-carbon steel and its high potential of precipitation of cementite, there is limited study on tailoring the mechanical and corrosion properties of this grade of steel by controlling the precipitation of different phases. Predicting and controlling precipitation behaviour on this grade of steel is of great importance towards producing more advanced applications using this low-cost alloy.

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When corrosion is the dominant failure factor in industrial application and at the same time high mechanical properties are required, aluminum bronze is one of the best candidates. Hence, there is a continuous quest for increasing the lifetime of aluminum bronze alloys through enhancing the abrasion and corrosion resistance. Existing methods are based on modifying the bulk properties of alloy or surface modification which required sophisticated equipment and process control.

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Article Synopsis
  • Steel is essential in construction and industrial applications, but improving its corrosion resistance is crucial, especially in corrosive environments.
  • The study examines how different heat treatments create dual-structure (DS) and triple-structure (TS) steels, impacting their microstructure, corrosion resistance, and hardness.
  • TS steels showed about 5.31% better corrosion resistance and 27.34% improved hardness compared to DS steels, attributed to the presence of bainite and martensite, which reduce pit growth and boundary corrosion.
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Large increasing production volumes of automotive shredder residue (ASR) and its hazardous content have raised concerns worldwide. ASR has a desirable calorific value, making its pyrolysis a possible, environmentally friendly and economically viable solution. The present work focuses on the pyrolysis of ASR at temperatures between 950 and 1550°C.

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