SysCAD
| Image: SysCAD Logo.png | |
| Developer(s) | KWA Kenwalt Australia |
|---|---|
| Engine | |
| Operating system | Windows |
| Type | Process Simulation |
| License | Commercial, Academic |
| Website | SysCAD |
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SysCAD, developed by KWA Kenwalt Australia.[1], is a chemical process modelling software package[2] used for steady-state and dynamic simulation[3] of chemical process plants[4]. The software solves the mass and energy balances of connected unit operations, represented in a process flow sheet interface[5]. SysCAD applies chemical process engineering principles including heat and mass transfer, chemical reactions, vapor–liquid equilibrium and size distribution[6]
Applications
SysCAD is considered the industry standard modelling package within the bauxite and alumina industry[7][8], and is applied extensively in metallurgical, hydrometallurgical and chemical process industries including: potash, sugar[4], copper, nickel[9], gold and wastewater treatment[2]. SysCAD is used for various applications such as: process and control system design[10], real-time simulation[11], plant optimisation and research and development.
References
- ↑ "General Information About SysCAD". KWA Kenwalt Australia. Retrieved 9 August 2020.
- ↑ 2.0 2.1 Rumball, JA; Munro, SD; Habner, ML (21 March 2007). "Reducing WAD Cyanide at the Discharge Spigot". Mill Operators' Conference. The Australasian Institute of Mining and Metallurgy (The AusIMM). 9: 229–233. Retrieved 2 March 2021.
- ↑ Munro, Scott (7 January 2014). "Part 1: Our Simulation Platform". Met Dynamics. Met Dynamics Pty Ltd. Retrieved 2 March 2021.
- ↑ 4.0 4.1 Thaval, Omkar P; Kent, Geoffrey Alan (2013). "Advanced computer simulation of the milling process" (PDF). Proc. Int. Soc. Sugar Cane Technol. ISSCT, Brazil. 28: 1595–1607. Retrieved 11 August 2020.
- ↑ Mahamud, Rasel; Rasul, Mohammad; Khan, M. Masud Kamal; Leinster, Malcolm (2013). "Exergy Analysis and Efficiency Improvement of a Coal Fired Thermal Power Plant in Queensland". Thermal Power Plants - Advanced Applications. IntechOpen: 3–28. doi:10.5772/55574. ISBN 978-953-51-1095-8.
- ↑ Stamatiou, E; Chinloy, DR; Çelikel, B; Kayaci, M; Savkilioglu, E (23 February 2013). "Hatch – ETI Aluminyum Precipitation Modeling". Light Metals 2013: 143–146. doi:10.1002/9781118663189.ch25. ISBN 9781118663189. Retrieved 2 March 2021.
- ↑ Islam, Ashraf Khondaker (2014). Full plant model for decision making in an alumina refinery. Chemeca 2014: Processing excellence; Powering our future. Engineers Australia. pp. 491–501. ISBN 9781922107381. Retrieved 11 August 2020.
- ↑ Armstrong, Jock (7 December 2017). "The Powerful Potential of a Proper Plant Process Model". Advisian - Worley Group. Retrieved 5 February 2021.
- ↑ Razavimanesh, Abbas; Tade, Moses; Rumball, John; Pareek, Vishnu (1 May 2006). "Steady-State Simulation of Hybrid Nickel Leaching Circuit Using Syscad". Chemical Product and Process Modeling. De Gruyter. 1 (1). doi:10.2202/1934-2659.1007. ISSN 1934-2659. Retrieved 9 August 2020. Unknown parameter
|s2cid=ignored (help) - ↑ Moloney, MJ; Corder, GD; Troncoso, NJ (1992). "Dynamic Simulation as a Process Control Design Tool". Conference on Control Engineering. Institution of Engineers, Australia. 5 (1): 227–232. ISBN 0858255626. Retrieved 9 August 2020.
- ↑ Gorst, J (2002). The Development of Real Time Simulations for Operator Training at NABALCO. Proceedings of the 6th International Alumina Quality Workshop. pp. 149–155. Retrieved 11 August 2020.
External links
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