Module 38
Code |
Course/Module Title |
ECTS |
Semester |
CHPR401 |
Separation Processes |
6 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
3 |
4 |
100 |
50 |
Description |
|||
Introduction; Yield and Separation Factor, Effect of operating variables on separation performance Multicomponent Liquid/Vapour Systems, Ideal Systems; Definition of K value and use, Dew/bubble point calculations Non-ideal systems; Cubic equations of state Multicomponent Distillation; Effect of operating variables on separation efficiency, Internal flow rates, concentration and temperature profiles, Nmin and Rmin, Key and non-key components Shortcut Design Method; Fenske equation, Underwood equation, Gilliland / Eduljee correlation, Kirkbride correlation, Use of equation set Plate to plate design; Generalised methods, MESH equations, matrix solutions, Inside out and rigorous solution Complex Fractionation; Complex petroleum fractionation, TBP curves and pseudo components, Pump-arounds, side streams, multiple products, Control of complex fractionation Column and Tray Efficiency; Basic definitions and correlations Membranes, ultrafiltration, reverse osmosis, Design considerations; Theory for porous and solution membranes Adsorption column design; Adsorbents and adsorption isotherms |
Module 39
Code |
Course/Module Title |
ECTS |
Semester |
CHPR402 |
Equipment Design |
5 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
3 |
1 |
58 |
67 |
Description |
|||
Introduction: General design procedure, Equipment classification, Design codes, Design pressure, Design temperature, Design stress, Factor of safety, Design wall thickness, Corrosion allowance, Weld joint efficiency factor. Pressure vessels: Design of thin& thick wall cylindrical and spherical vessels, Tall vessels, Storage vessels, Different types of heads. Heat Transfer Equipment: Process design calculations for heat transfer equipment, Design of shell and tube heat exchangers, Estimation of heat transfer coefficients and pressure drop by Kerns’ and Bell’s methods, Condenser design, Plate type heat exchanger design. Mass Transfer Equipment: Process design calculations for multi-component distillation, Fenske-Underwood-Gilliland Method, Selection of key components, Fenske equation for minimum equilibrium stage, Gilliland correlations for actual reflux ratio and theoretical stages, Minimum reflux ratio by Underwood method, Feed stage location, types of plate contractors, tray layout and hydraulic design, Packed towers – column internals, Types of packing, General pressure drop correlation, Column diameter and height. |
Module 40
Code |
Course/Module Title |
ECTS |
Semester |
CHPR403 |
Process Dynamics and Control I |
5 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
3 |
3 |
86 |
39 |
Description |
|||
1st order response, time delay, steady state coefficient, final value theorem, 2nd order system, closed loop systems, transfer function and flow diagram. |
Module 41
Code |
Course/Module Title |
ECTS |
Semester |
CHPR404 |
Chemical Reaction Engineering |
5 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
3 |
1 |
58 |
67 |
Description |
|||
principles of chemical kinetics, reactor analysis and design. rate constants, reaction order, rate equations for elementary and complex reactions, kinetic data analysis, and product distribution. reactor analysis and design, ideal reactor systems and arrangements, including batch reactors, plug flow reactors, continuous stirred tank reactors, and recycle reactors. homogeneous and heterogeneous catalytic reactions. how to make an appropriate choice of reactor type and operating conditions to optimize a desired product; sizing such reactors and determining conversion levels under various conditions of temperature and pressure. determination of reaction kinetics from experimental data. |
Module 42
Code |
Course/Module Title |
ECTS |
Semester |
CHPR405 |
Elective 401 |
4 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
2 |
0 |
30 |
70 |
Description |
|||
|
Module 43
Code |
Course/Module Title |
ECTS |
Semester |
CHPR406 |
Design Project I |
5 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
4 |
0 |
58 |
67 |
Description |
|||
A group of students will be assigned to perform: Process selection from among alternatives, Literature review, Process flowsheet development, Material and energy balance computations in a complete processing plant. |
Module 44
Code |
Course/Module Title |
ECTS |
Semester |
CHPR407 |
Refinery Processes |
6 |
8 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
3 |
4 |
100 |
50 |
Description |
|||
Introduction: Classification of Crude oil, Crude processing principles and units, Refinery feedstocks and products, Processes of Refineries: Kinds of refineries, Fractionation processes, Treating processes, Upgrading processes, Product blending. Lubricating oil process, Reforming process, |
Module 45
Code |
Course/Module Title |
ECTS |
Semester |
CHPR408 |
Process Integration |
4 |
8 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
2 |
0 |
30 |
70 |
Description |
|||
Introduction to process integration (PI), onion diagram, concept of pinch technology and its application, targeting of energy, area, number of units and cost, Concept of ΔTmin, Data Extraction, Targeting, Designing, Grid Diagram, Composite curve, Problem Table Algorithm, Grand Composite Curve, Heat exchanger networks analysis, Maximum Energy Recovery (MER). |
Module 46
Code |
Course/Module Title |
ECTS |
Semester |
CHPR409 |
Process Dynamics and Control II |
6 |
8 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
3 |
4 |
100 |
50 |
Description |
|||
Air control value , control system , discontinuous, proportional, integral, differential, optimum control by Ziegler‐ Nichols method, stability, Routh's method, frequency response ( Bode and Nyquist diagram ), measuring devices of temperature, pressure, concentration and fluid flow . |
Module 47
Code |
Course/Module Title |
ECTS |
Semester |
CHPR410 |
Catalysts and Catalytic Reactors |
5 |
8 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
3 |
1 |
58 |
67 |
Description |
|||
Introduction to Catalysis; Definition and importance of catalysis in chemical reactions, Homogeneous and heterogeneous catalysis Catalytic Reaction Kinetics; Rate ex Types of Catalytic Reactors, Fixed-bed reactors, Fluidized-bed reactors, Stirred-tank reactors, Membrane reactors, Microreactors Catalytic Reaction Engineering; Design considerations for catalytic reactors, Residence time distribution and reactor modeling, Reactor optimization and scale-up Reaction Engineering for Specific Catalytic Processes; Catalytic reforming, Hydrocracking Catalytic hydrogenation, Selective oxidation, Fischer-Tropsch synthesis, Catalytic polymerization Catalyst Poisoning and Catalyst Promoters; Mechanisms of catalyst poisoning, Strategies for minimizing catalyst deactivation, Catalyst promoters and their role in enhancing catalytic activity |
Module 48
Code |
Course/Module Title |
ECTS |
Semester |
CHPR411 |
Elective 402 |
4 |
8 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
2 |
0 |
30 |
70 |
Description |
|||
|
Module 49
Code |
Course/Module Title |
ECTS |
Semester |
CHPR412 |
Design Project II |
5 |
8 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
4 |
0 |
58 |
67 |
Description |
|||
Chemical Engineering design of all major equipment in a plant. Sizing and specifications. Mechanical engineering design and drawing of an assigned equipment. Plant cost and profitability analysis. Safety and pollution issues. Process control. Environmental impact assessment and plant location. |
Electives Modules
Code |
Course/Module Title |
ECTS |
Semester |
CHPR405 |
Corrosion Engineering |
4 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
2 |
0 |
30 |
70 |
Description |
|||
Introduction, fundamental reason, Electrochemical corrosion, Direct chemical corrosion, Factors affecting the rate of corrosion, Types of corrosion- pitting corrosion, Microbiological corrosion, Stress corrosion, Methods to minimize the corrosion–proper design, Cathodic and anodic protection, Metallic coating, Organic coating
|
Code |
Course/Module Title |
ECTS |
Semester |
CHPR405 |
Utilities and Water Treatment |
4 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
2 |
0 |
30 |
70 |
Description |
|||
INTRODUCTION TO VARIOUS PROCESS UTILITIES: their role and importance in process plant operations. Steam and Power: Types of boilers, their operation, thermic fluid heater, complete boiler house, steam distribution and utilization. Compressed air system: air from blowers and compressor, plant air, instrument air systems and breathing air. INTERNAL TREATMENT PROCESS: Character and properties – Water problem and solution – Water Sedimentation - Coagulation –Filtration – Disinfection – Theory, necessity, process, equipment, application, location, limitation. EXTERNAL TREATMENT PROCESS: Softening by Ion – exchange process, Demineralization – Cation exchange materials –Removal of ion, Manganese, odour, colour taste –Deaeration – Oxidation – Fluoridation– Dealkalisation – Desalination by Reverse osmosis. BOILER WATER AND COOLING WATER: Concept – Importance – Location – Commonly used desalination process – Distillation –Electrodialysis – Reverse osmosis – Freezing – Solar distillation- Purpose – Problem associated with water quality and equipment – Steam system fundamentals – Hot water closed system – Measurement and control of pH, corrosion, fouling – Microbial analysis – Ozone control – Study of microorganism – Energy efficient operations and maintenance. WASTE WATER TREATMENT: Waste water in Industry- Home and Agriculture – Various waste water treatment processes –Optimization – Benefits and costs – Microbial and sanitation water treatment – Biofilm formation and removal – Microbial trend analysis – Pretreatment system and equipment. |
Code |
Course/Module Title |
ECTS |
Semester |
CHPR405 |
Petroleum industries |
4 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
2 |
0 |
30 |
70 |
Description |
|||
The origin of oil and gas, The different rock formations that oil and gas are produced in, Surface geology and the cost involved in drilling a well, Exploration geology and the cost involved in drilling a well, Reservoir performances, Drilling basics, Formation evaluations, Basic knowledge of production, Different methods of transportation of oil and gas, Marketing and refining of oil and gas. |
Code |
Course/Module Title |
ECTS |
Semester |
CHPR405 |
Fuels & Combustion |
4 |
7 |
Class (hr/w) |
Lect/Lab./Prac./Tutor |
SSWL (hr/sem) |
USWL (hr/w) |
2 |
0 |
30 |
70 |
Description |
|||
Introduction and survey of common fuels Classification and storage of solid, liquids and gaseous fuels ,Calorific value- higher and lower calorific values, Industrial fuels Criteria for the selection of fuels for industrial purposes , Coke and its industrial manufacture and uses, Petroleum and its distillation products, Synthetic fuels, testing of fuels, Principles of combustion, combustion of oil, coal and gas, Fluidized Bed Combustion Boilers, Combustion calculations, Furnaces, Burners and their performance, Theoretical and actual requirement of primary, secondary and excess air during the combustion, Heat distribution, temperature control, draft control, waste heat recovery |