CIO 320 - Revision history

JLFlyer at 11:34, 24 October 2015

2015-10-24T11:34:42Z

JLFlyer at 11:34, 24 October 2015

2015-10-24T11:34:03Z

JLFlyer at 11:29, 24 October 2015

2015-10-24T11:29:20Z

JLFlyer: Created page with "Chemical Engineering Design was born out of two previous curriculum subjects, namely Heat Transfer and Piping Systems Design. Thus CIO 320 and CMO 310 Mass Transfer 3..."

2015-10-24T11:19:35Z

Created page with "Chemical Engineering Design was born out of two previous curriculum subjects, namely Heat Transfer and Piping Systems Design. Thus CIO 320 and CMO 310 Mass Transfer 3..."

New page

Chemical Engineering Design was born out of two previous curriculum subjects, namely Heat Transfer and Piping Systems Design. Thus [[CIO 320]] and [[CMO 310]] Mass Transfer 310 is a continuation of [[COP 311]] Transfer processes 311

Steady and unsteady state conductive heat transfer in one to three dimensions. Temperature distributions. Convective heat transfer. Application of boundary layer theory. Determination of film coefficients. Design of heat transfer equipment. Radiant heat transfer. Application of the mechanical energy balance to single phase Newtonian fluids in steady state systems. Adjustment for multiphase, non-Newtonian as well as pulsating systems. Orifice design. Optimal economic choice of pipe diameters, pumps and control valves.

← Older revision		Revision as of 11:34, 24 October 2015
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	* Design		* Design
−	An assignment covering a heating/cooling system and the piping ~~coneting~~ it.	+	An assignment covering a heating/cooling system and the piping connecting it.

← Older revision		Revision as of 11:34, 24 October 2015
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	* Momentum Transfer		* Momentum Transfer
	Application of the mechanical energy balance to single phase Newtonian fluids in steady state systems. Adjustment for multi-phase, non-Newtonian, compressible as well as pulsating systems. Orifice design. Optimal economic choice of pipe diameters, pumps and control valves. Design of piping systems.		Application of the mechanical energy balance to single phase Newtonian fluids in steady state systems. Adjustment for multi-phase, non-Newtonian, compressible as well as pulsating systems. Orifice design. Optimal economic choice of pipe diameters, pumps and control valves. Design of piping systems.
		+
		+	* Design
		+	An assignment covering a heating/cooling system and the piping coneting it.

← Older revision		Revision as of 11:29, 24 October 2015
Line 1:		Line 1:
−	Chemical Engineering Design was born out of two previous curriculum subjects, namely Heat Transfer and Piping Systems Design. Thus [[CIO 320]] and [[CMO 310]] Mass Transfer 310 is a continuation of [[COP 311]] Transfer processes 311	+	Chemical Engineering Design was born out of two previous curriculum subjects, namely Heat Transfer and Piping Systems Design. Thus [[CIO 320]] and [[CMO 310]] (Mass Transfer 310) is a continuation of [[COP 311]] (Transfer processes 311). The subject also serves to prepare students for [[CPJ 421]] ( Design project 421) through an assignment focusing on the design of a piping system including a heating/cooling utility.

−	Steady and unsteady state conductive heat transfer in one to three dimensions. Temperature distributions. Convective heat transfer. Application of boundary layer theory. Determination of film coefficients. Design of heat transfer equipment. ~~Radiant heat transfer.~~ Application of the mechanical energy balance to single phase Newtonian fluids in steady state systems. Adjustment for ~~multiphase~~, non-Newtonian as well as pulsating systems. Orifice design. Optimal economic choice of pipe diameters, pumps and control valves.	+	The subject covers:
		+	* Heat transfer
		+	Steady and unsteady state conductive heat transfer in one to three dimensions. Temperature distributions. Convective heat transfer. Application of boundary layer theory. Determination of film coefficients. Radiant heat transfer. Boiling and condensation. Design of heat transfer equipment.
		+
		+	* Momentum Transfer
		+	Application of the mechanical energy balance to single phase Newtonian fluids in steady state systems. Adjustment for multi-phase, non-Newtonian, compressible as well as pulsating systems. Orifice design. Optimal economic choice of pipe diameters, pumps and control valves. Design of piping systems.