Abhi PYQ

Credits Table

Course Title L T P Credits
Mass Transfer Operations [114701] 3 0 0 3
Program Elective II [1147XX] 3 0 0 3
Mass Transfer Operations Lab [114701P] 0 0 2 1
Summer Internship II [114706] 0 0 8 Weeks 8
Project-I [114707] 0 0 0 6
NPTEL Course II [114708] 0 0 0 2
TOTAL 23

Theory Subjects

Lab Subjects & Projects

Mass Transfer Operations [114701]

  • Unit 1: Diffusion: Fundamentals and Applications in Mass Transfer
    • Introduction To Diffusion: Concept
    • Significance
    • And Role Of Diffusion In Mass Transfer And Separation Processes
    • Types Of Diffusion: Molecular Diffusion
    • Eddy Diffusion
    • And Knudsen Diffusion Mechanisms And Comparative Analysis
    • Fundamental Principles Of Diffusion: Fick's First Law Of Diffusion: Diffusional Flux
    • Concentration Gradient
    • Assumptions
    • Derivation
    • And Limitations
    • Fick's Second Law Of Diffusion: Unsteady-state Diffusion
    • Mathematical Formulation
    • And Solution For Simple Boundary Conditions
    • Steady-State Molecular Diffusion In Gases And Liquids: Diffusion Of A Gas A Through A Stagnant Gas B
    • Equimolar Counter Diffusion
    • Diffusion In Liquids Binary Diffusivity
    • Interdiffusion
    • And Factors Influencing Diffusivity (Temperature, Pressure, Molecular Weight, And Medium)
    • Numerical Problems: Application Of Fick's Laws To Steady And Unsteady Diffusion In Gases And Liquids
  • Unit 2: Distillation
    • Introduction: Definition And Importance Of Distillation In Separation Processes
    • Concept And Basic Principles Of Distillation
    • Vapour-Liquid Equilibrium (VLE): Phase Behaviour And Boiling Point Diagram
    • Equilibrium Diagram And Relative Volatility
    • Effect Of Pressure On VLEP-x-y Diagrams
    • Ideal Solutions: Raoult's Law
    • Non-ideal Solutions: Henry's Law And Deviations From Ideality
    • Distillation Methods: Distillation Without Fractionation
    • Flash Vaporization: Principle
    • Operation
    • And Material Balance
    • Simple Distillation: Principle
    • Operation
    • Material Balance
    • And Rayleigh's Equation
    • Steam Distillation: Principle
    • Operation
    • And Material Balance
    • Distillation With Fractionation: Principle Of Fractionation And Types Of Refluxes (Total, Minimum, And Optimum)
    • Material Balance: Overall And Component Material Balance For Distillation Columns
    • McCabe-Thiele Method: Determination Of Theoretical Stages/Plates: Construction Of Operating Lines For Rectifying And Stripping Sections
    • Feed Line (q-line): Feed Quality
    • Equation
    • And Effect On Slope
    • Numerical Problems: Determination Of Number Of Theoretical Plates By McCabe-Thiele Method
    • Types Of Fractionating Columns: Plate Columns: Bubble-cap
    • Sieve
    • And Valve Plates
    • Packed Columns: Random And Structured Packings
    • Column Internals: Weirs And Downcomers
  • Unit 3: Gas Absorption
    • Introduction: Definition
    • Concept
    • And Basic Principles Of Gas Absorption
    • Importance Of Gas-liquid Mass Transfer Operations In Process Industries
    • Distinction Between Absorption And Adsorption Phenomena With Suitable Industrial Examples
    • Applications Of Absorption In Chemical
    • Petrochemical
    • And Environmental Engineering (e.g., Removal Of CO2, SO2, And NH3 From Gas Streams)
    • Absorption Equilibrium: Concept Of Solubility Of Gases In Liquids And Equilibrium Relations Between Gas And Liquid Phases
    • Use Of Henry's Law And Raoult's Law In Describing Gas Absorption Equilibrium
    • Influence Of Temperature
    • Pressure
    • And Solute Concentration On Solubility
    • Application Of The Phase Rule To Gas-liquid Systems
    • Criteria For Selection Of Solvents For Specific Absorption Duties Based On Solubility
    • Selectivity
    • Volatility
    • Chemical Stability
    • Viscosity
    • Cost
    • And Ease Of Regeneration
    • Gas Absorption Equipment: Types
    • Principles
    • And Design Fundamentals
    • Major Gas Absorption Equipment Used In Industry
    • Including Packed Columns
    • Plate Columns
    • And Mechanically Agitated Vessels
    • Packed Columns: Constructional Features
    • Operating Principles
    • And Design Fundamentals Of Packed Towers
    • Characteristics And Performance Parameters Of Structured Packings (Metallic Or Plastic Corrugated Sheets, Wire Mesh) And Random Packings (Raschig Rings, Pall Rings, Berl And Intalox Saddles)
    • Packing Characteristics
    • Mass Transfer Area
    • And Pressure Drop Through Packed Beds
    • Hydrodynamics In Packed Columns
    • Including Liquid Holdup
    • Channeling
    • Flooding
    • And Loading Behavior
    • Definition And Significance Of Height Equivalent To A Theoretical Plate (HETP) And Its Correlation With Column Performance
    • Numerical Problems Based On Design And Performance Of Packed Columns
    • Mechanically Agitated Vessels: Principle
    • Design Features
    • Working
    • And Application In Gas Absorption Operations Where High Gas-liquid Contact Efficiency Is Required
    • Material Balance And Power Consumption
    • Venturi Scrubber: Principle Of Operation
    • Design Features
    • Hydrodynamic Behavior
    • And Mass Transfer Mechanism
    • Advantages
    • Limitations
    • And Industrial Applications In Removing Fine Particulate Matter And Soluble Gases From Gas Streams
  • Unit 4: Liquid-Liquid Extraction
    • Introduction: Definition
    • Concept
    • And Basic Principles Of Liquid-liquid Extraction As A Mass Transfer Operation
    • Importance Of Extraction In Separating Components From Liquid Mixtures Where Distillation Is Ineffective Due To Close Boiling Points
    • Heat Sensitivity
    • Or Azeotrope Formation
    • Comparison Between Extraction And Distillation Based On Driving Force
    • Equipment
    • And Industrial Applications
    • Liquid Equilibria: Equilibrium Distribution Of Solute Between Two Immiscible Liquid Phases And Derivation Of The Distribution Law
    • Representation Of Equilibrium Data Using Distribution Coefficient And Its Dependence On Temperature And Solute Concentration
    • Graphical Representation Of Equilibrium Using Equilateral Triangular Coordinates And Ternary Phase Diagrams For Systems Containing One Pair Partially Miscible And Two Pairs Partially Miscible
    • Interpretation Of Tie Lines
    • Plait Point
    • And Binodal Curve In Ternary Diagrams
    • Determination Of The Number Of Theoretical Stages In Extraction Using Graphical Methods
    • Numerical Problems Based On Distribution Coefficient And Extraction Efficiency
    • Choice Of Solvent: Selection Criteria For Solvents Used In Extraction
    • Including High Selectivity For Solute
    • Low Miscibility With The Feed Liquid
    • Chemical Stability
    • Low Viscosity
    • Ease Of Regeneration
    • Non-toxicity
    • Availability
    • And Cost-effectiveness
    • Solvent Recovery And Economic Considerations In Extraction Processes
    • Extraction Equipment: Various Types Of Liquid-liquid Extraction Equipment Used In Industrial Practice
    • Emphasizing Their Principle
    • Construction
    • Working
    • And Application
    • Mixer-Settler Assemblies: Design And Operation Of Mixer-settler Units
    • Principle Of Dispersion And Phase Separation
    • Application In Batch And Continuous Extraction Processes
    • Static Columns: Design And Operation Of Spray Columns And Sieve Plate Columns
    • Flow Pattern
    • Contact Efficiency
    • Residence Time
    • And Operating Limitations
    • Mechanically Agitated Columns: Working Principles And Design Features Of Rotating Disc Contactors (RDC) And Pulse Columns
    • Effect Of Agitation Speed
    • Droplet Size
    • And Column Dimensions On Mass Transfer Rate And Extraction Efficiency
    • Centrifugal Contactors: Principle And Design Aspects Of Centrifugal Extractors
    • Advantages Such As High Mass Transfer Efficiency
    • Compact Design
    • And Short Residence Time
    • Industrial Applications In Solvent Recovery
    • Metal Extraction
    • And Pharmaceutical Industries
  • Unit 5: Crystallization
    • Introduction: Definition
    • Importance
    • And Fundamental Concept Of Crystallization As A Separation And Purification Process
    • Applications Of Crystallization In Chemical
    • Pharmaceutical
    • And Food Industries
    • Crystal Formation As A Simultaneous Process Of Mass Transfer And Thermodynamic Equilibrium
    • Mechanism Of Crystallization: Concepts Of Saturation
    • Supersaturation
    • And Nucleation
    • Explanation Of Mier's Theory Of Supersaturation And Its Role In Controlling Crystal Size And Purity
    • Distinction Between Primary And Secondary Nucleation And Between Crystal Growth And Nucleation Kinetics
    • Factors Affecting Crystal Formation Such As Temperature
    • Concentration
    • Agitation
    • And Impurities
    • Crystallization Equipment: Principle
    • Construction
    • Operation And Performance Of Major Crystallizers Used In Industry
    • Detailed Design And Working Of Agitated Tank Crystallizer And Swenson-Walker Crystallizer
    • Process Parameters Influencing Product Yield And Quality
  • Unit 6: Drying
    • Introduction: Definition
    • Significance
    • And Basic Principles Of Drying As A Mass Transfer Operation
    • Importance Of Drying In Process Industries For Solid-liquid Separation
    • Moisture Removal
    • And Product Preservation
    • Modes Of Drying: Constant-rate And Falling-rate Periods
    • Drying Equilibrium: Concept Of Drying Equilibrium And Representation Of Moisture Content On Dry Basis And Wet Basis
    • Relationship Between Relative Humidity And Moisture Content Of Solids
    • Explanation Of Equilibrium Moisture Content
    • Free Moisture
    • Bound And Unbound Water
    • Hysteresis
    • And The Effect Of Soluble Solids On Drying Characteristics
    • Development And Interpretation Of Drying Rate Curves
    • Numerical Problems Based On Drying Equilibrium And Rate Calculations
    • Drying Equipment: Classification Of Dryers Into Batch And Continuous Types
    • Principles
    • Construction
    • Working
    • And Applications Of Common Industrial Dryers Including Tray Dryer
    • Rotary Dryer
    • Drum Dryer
    • Spray Dryer
    • And Fluidized Bed Dryer
    • Comparative Analysis Of These Dryers Based On Heat And Mass Transfer Rates
    • Energy Efficiency
    • And Suitability For Different Materials
    • Process Optimization
    • Drying Kinetics
    • And Scale-up Considerations

Text/Reference:

  1. Mass Transfer Operations: Theory and Application, K.V.Narayanan, B. Lakshmikutty, CBS Publishers & Distributors Pvt. Ltd. ISBN: 978-9354666094
  2. Mass Transfer Operations, Robert E. Treybal, McGraw-Hill, ISBN: 978-0070666153
  3. Unit Operations of Chemical Engineering, Warren L. McCabe, Julian C. Smith, Peter Harriott, McGraw-Hill, ISBN: 978-0072848236.
  4. Principles of Mass Transfer and Separation Processes, Binay K. DuttaPHI Learning, ISBN: 978-8120345187.
  5. Transport Processes and Separation Process Principles, Christie J. Geankoplis Pearson Education, ISBN: 978-0131013674.
  6. Chemical Engineering: Volume 1 & 2, J.M. Coulson, J.F. RichardsonButterworth-Heinemann, ISBN: 978-0750644457 (Vol. 1), 978-0750644464 (Vol. 2).
  7. Separation Process Principles J.D. Seader, Ernest J. Henley Wiley, ISBN: 978-0470481837.
  8. Process Fluid Mechanics, Morton M. Denn, Prentice Hall, ISBN: 978-0137232093. Inc., Illinois, 1996.

Program Elective II: Bioprocess Engineering [114702]

  • Unit 1
    • Introduction To Bioprocesses
    • Historical Development Of Bioprocess Technology
    • An Overview Of Traditional And Modern Applications Of Biotechnology Industry
    • Outline Of An Integrated Bioprocess And The Various (upstream And Downstream) Unit Operations Involved In Bioprocess
    • Generalized Process Flow Sheets
  • Unit 2
    • Fermentation Process-I: General Requirements Of Fermentation Processes
    • Basic Design And Construction Of Fermenter And Ancillaries
    • Main Parameters To Be Monitored And Controlled In Fermentation Process
    • Fermentation Process-II: An Overview Of Aerobic And Anaerobic Fermentation Processes And Their Application In The Biotechnology Industry
    • Solid-substrate
    • Slurry Fermentation And Its Applications
    • Whole Cell Immobilization
    • Behaviour Of Microbes In Different Reactors (Air Lift, Fluidized, Batch, Continuous Fed Batch Condition)
  • Unit 3
    • Media Design: Medium Requirements For Fermentation Process
    • Carbon
    • Nitrogen
    • Minerals
    • Vitamins And Other Complex Nutrients
    • Oxygen Requirements
    • Medium Formulation For Optimal Growth And Product Formation
    • Examples Of Simple And Complex Media
    • Design And Usage Of Various Commercial Media For Industrial Fermentations
    • Sterilization: Thermal Death Kinetics Of Microorganisms
    • Batch And Continuous Heat
    • Sterilization Of Liquid Media
    • Filter Sterilization Of Liquid Media
    • Air
    • Design Of Sterilization Equipment
  • Unit 4
    • Kinetics Of Microbial Growth And Product Formation: Phases Of Cell Growth In Batch Cultures
    • Simple Unstructured Kinetic Models For Microbial Growth
    • Monod Model
    • Growth Of Filamentous Organisms
    • Growth Associated (Primary) And Nongrowth Associated (Secondary) Product Formation Kinetics
    • Leudeking-Piret Models
    • Substrate And Product Inhibition On Cell Growth And Product Formation
    • Introduction To Structured Models For Growth And Product Formation
  • Unit 5
    • Metabolic Stoichiometry: Stoichiometry Of Cell Growth And Product Formation
    • Elemental Balances
    • Degrees Of Reduction Of Substrate And Biomass
    • Available Electron Balances
    • Yield Coefficients Of Biomass And Product Formation
    • Maintenance Coefficients
  • Unit 6
    • Energetics: Energetic Analysis Of Microbial Growth And Product Formation
    • Oxygen Consumption And Heat Evolution In Aerobic Cultures Thermodynamic Efficiency Of Growth

Text/Reference:

  1. Biochemical Engineering Fundamentals Balleyand Ollis, McGraw Hill (2nd Ed.), 1986.
  2. Bioprocess Engineering, Shule and Kargi, Prentice Hall, 1992.
  3. Stanbury, P.F., Whitaker, A., & Hall, S.J., (1998), Principles of fermentation Technology, 2nd ed., Elsevier Science Publishers, BV, Amsterdam.

Program Elective II: Disaster Management [114703]

  • Unit 1: Fundamentals of Disaster Management
    • Definitions And Concepts Of Hazard
    • Vulnerability
    • Risk
    • Resilience
    • Concept Of Disaster Management Cycle
    • Introduction To Various Hazards Both Natural And Man-Made Hazards- Earthquakes
    • Cyclones
    • Droughts
    • Floods
    • Volcanoes
    • Coastal Hazards
    • Landslides
    • Forest Fires
    • Industrial Accidents
    • Biological Disasters
    • Etc.
    • Climate Change
    • Global Warming
  • Unit 2: Disaster Management in India
    • Hazard And Vulnerability Profile Of India
    • Disaster Management Act 2005
    • National Disaster Mitigation And Management Guideline On -National Policy On Disaster Management 2009
    • NDMA Guidelines On Cyclones Specifically
    • Besides Earthquakes
    • Floods
    • Urban Floods
    • Information Systems
    • Communication Systems Etc.
    • Introduction To State Disaster Management Authorities
  • Unit 3: Hazard Analysis
    • Estimation Of Potential Causes
    • Characteristics And Impact Of Hazards
    • Geological/Processes Leading To Natural Hazards
    • Multi-Hazard Assessment
    • Short Term And Long Term Prediction
    • Early Warning System For Different Hazards
    • Risk Analysis For Individuals
    • Communities Etc.
    • Role Of Remote Sensing & GIS In Disaster Management And Its Applications
    • Case Studies
    • Sudden Explosion Of Cylinder
    • Bulk Chemical Storage Fire
  • Unit 4: Disaster Risk Reduction (DRR)
    • Assessing Vulnerabilities
    • Risk Assessment
    • Preparation Of Exposure And Risk Database
    • Prevention And Mitigation Strategies For DRR
    • Framework Of Disaster Risk Reduction
    • Capacity Building Measures
    • Community Participation
    • Contemporary Studies And Work Towards Disaster Risk Reduction
    • Disaster Risk Reduction Plan
  • Unit 5: Response & Recovery Operation I
    • Role Of NDRF
    • Training Of Personnel
    • Equipment Necessary
    • Public Awareness Creation
    • Mass Casualty Management
    • Agencies Involved In Mass Casualty Management
    • Qualification And Duties Of Professionals
    • Response Policy
  • Unit 6: Response & Recovery Operation II
    • Case Studies: Case Study: Recover & Rehabilitation After Bhopal Gas Tragedy
    • The Indian Ocean Tsunami 2004
    • The 2013 IOCL Hazira Fire Accident

Text/Reference:

  1. Disaster management H. K. Gupta 2nd Edition, University Press, 2001.
  2. Disaster Management R. B. Singh (Ed), Rawat Publication, New Delhi, 2000., ISBN: 8170335582, 9788170335580.
  3. An overview on natural & man-made disasters and their reduction, R K Bhandani, CSIR, New Delhi.
  4. Encyclopedia of disaster management, SL Goyal Deep & Deep, Publications, New Delhi, 2006, ISBN-10: 817629716X, ISBN-13: 978-8176297165.
  5. Manuals on Natural Disaster management in India. Gupta, M.C. National Centre for Disaster Management, IIPA, New Delhi, 2002.
  6. Disaster Management Guidelines. GOI-UNDP, GOI-UNDP Disaster Risk Reduction Programme (2009-2012).

Program Elective II: Membrane Technology [114704]

  • Unit 1: Introduction to Membrane Technology
    • History And Evolution Of Membrane Technology
    • Classification Of Membranes
    • Basic Principles Of Membrane Separation
    • Transport Mechanisms: Diffusion
    • Osmosis
    • Filtration
    • Dead End And Crossflow Membrane Process
  • Unit 2: Membrane Materials and Fabrication
    • Types Of Membrane Materials (Polymeric, Ceramic, Metallic, Composite)
    • Fabrication Techniques (Phase Inversion, Electrospinning, Sintering)
    • Membrane Structure: Symmetric Vs. Asymmetric
    • Characterization Methods (SEM, AFM, Porometry, Spectroscopy)
  • Unit 3: Membrane Processes and Membrane Modules
    • Overview Of Membrane Separation Processes: A) Microfiltration (MF)
    • B) Ultrafiltration (UF)
    • C) Nanofiltration (NF)
    • D) Reverse Osmosis (RO)
    • E) Forward Osmosis (FO)
    • F) Gas Separation
    • G) Pervaporation
    • H) Electrodialysis
    • Membrane Modules: A) Plate-and-frame
    • B) Spiral-wound
    • C) Hollow Fiber
    • D) Tabular
  • Unit 4: Applications of Membrane Technology
    • Membrane Bioreactor For Wastewater Treatment
    • Desalination By Membrane Technology
    • Separation Of Azeotropic Mixture Using Pervaporation Membrane Process
    • Food And Beverage Industry (e.g., Dairy, Juice Concentration)
    • Pharmaceutical And Biotechnology Applications
    • Energy Sectors (e.g., Hydrogen Production, Carbon Capture)
    • Emerging Areas: Membranes In Batteries And Fuel Cells
  • Unit 5: Challenges, Innovations and Future Trends I
    • Membrane Fouling And Cleaning Strategies
    • Economic Considerations (Cost Analysis, Lifecycle Assessment)
  • Unit 6: Challenges, Innovations and Future Trends II
    • Advances In Membrane Materials (Graphene, MOFs, Aquaporin-based Membranes)
    • Sustainability And Environmental Impacts
    • Future Directions: Smart Membranes
    • Bioinspired Membranes

Text/Reference:

  1. Membrane Technology and Applications, Richard Baker, Publisher: Wiley, ISBN:978-0470743720
  2. Membrane Separation Processes, Kaushik Nath, Publisher: PHI Learning, ISBN:978-8120335325
  3. Basic Principles of Membrane Technology, Marcel Mulder, Publisher: Springer, ISBN: 978-9401058545.
  4. Membrane Processes in Separation and Purification J.G. Crespo and K.W. Boddeker, Publisher: Springer, ISBN:978-0792323586.
  5. Advanced Membrane Technology and Applications Norman N Li, Anthony G. Fane, W. S. Winston Ho, Takeshi Matsuura, Publisher: Wiley, ISBN:978-0471731672.

Program Elective II: Renewable Energy Technology [114705]

  • Unit 1: Introduction to Renewable Energy
    • Global And National Energy Scenarios
    • Types Of Renewable Energy Sources
    • Need For Renewable Energy: Environmental And Economic Perspectives
    • Energy Units And Conversions
    • Energy Balance And Efficiency Calculations
    • Conventional
    • Non-conventional
    • Renewable
    • Non-renewable Sources Of Energy: Prospects
    • Perspectives
    • & Advantages
    • Types Of Energy Storage: Thermal
    • Electrochemical (Batteries)
    • Mechanical (Flywheels)
    • Chemical (Hydrogen)
  • Unit 2: Solar Energy
    • Solar Thermal Systems: Solar Collectors (Flat Plate, Evacuated Tube, Concentrating)
    • Heat Transfer Fluids And Materials
    • Solar Water Heating Systems
    • Photovoltaic (PV) Systems: Working Principle And Components
    • Efficiency And Performance Analysis
    • PV Cell Materials (Silicon-based, Thin-film, Emerging Technologies)
    • Performance Analysis Of Liquid Flat Plate Collectors And Solar Air Heaters
    • Chemical Applications: Solar-assisted Chemical Reactors
    • Solar Hydrogen Production (Photocatalysis, Thermolysis)
  • Unit 3: Hydrogen and Fuel Cells
    • Hydrogen As An Energy Carrier
    • Production Methods: Steam Methane Reforming (SMR)
    • Electrolysis (Alkaline, PEM)
    • Thermochemical Water Splitting
    • Hydrogen Storage And Transport
    • Fuel Cell Types: Proton Exchange Membrane Fuel Cell (PEMFC)
    • Solid Oxide Fuel Cell (SOFC)
    • Direct Methanol Fuel Cell (DMFC)
  • Unit 4: Wind Energy
    • Wind Energy: Wind Turbine Types
    • Aerodynamics
    • Wind Farm Siting And Design
    • Power Generation And Control Systems
  • Unit 5: Hydropower Energy
    • Hydropower: Principles Of Hydropower
    • Small-scale Hydro Systems
    • Environmental Impacts And Mitigation
  • Unit 6: Geothermal and Ocean Energy
    • Geothermal Resources And Extraction Technologies
    • Binary Cycle And Flash Steam Plants
    • Ocean Energy: Tidal And Wave Energy Conversion
    • Ocean Thermal Energy Conversion (OTEC)

Text/Reference:

  1. Renewable Energy: Power for a Sustainable Future, Godfrey Boyle, Oxford University, Press, 3rd Edition (2012)
  2. Renewable Energy Resources, John Twidell and Tony Weir, Routledge, 3rd Edition (2015)
  3. Biofuels Engineering Process Technology, Caye M. Drapcho, Narendra N. Nimbkar, Terry H. Walker, McGraw-Hill, 2nd Edition (2008)
  4. Solar Engineering of Thermal Processes John A. Duffie and William A. Beckman, Wiley, 4th Edition (2013)
  5. Hydrogen and Fuel Cells: Emerging Technologies and Applications, Bent Sørensen, Elsevier, 2nd Edition (2005)
  6. Energy Storage, Robert A. Huggins, Springe, 1st Edition (2016)
  7. Non-Conventional Energy Resources, B. H. Khan, McGraw Hill, 3rd edition
  8. Renewable Energy Sources and Emerging Technologies D. P. Kothari, K. C. Singhal, and Rakesh Ranjan, PHI Learning
  9. Solar Energy: Principles of Thermal Collection and Storage, S. P. Sukhatme and J. K. Nayak, McGraw Hill, 3rd edition

NPTEL Course II [114708]

Details for NPTEL Course II will be provided by the department. This component carries 2 credits.

Mass Transfer Operations Lab [114701P]

Perform any 10 Experiments from the list below:

  • List of Experiments:
    • 1. Determination Of The Diffusion Coefficient Of A Given Gas Or Vapor In Air Using A Diffusion Cell
    • 2. Determination Of The Diffusivity Of A Solute In A Liquid Medium Using A Diffusion Cell
    • 3. Verification Of Rayleigh's Equation In Simple Distillations
    • 4. Determination Of Vapour-Liquid Equilibrium (VLE) Data For A Binary Mixture
    • 5. Performance Evaluation Of A Fractional Distillation Column For Separation Of Binary Mixtures
    • 6. Performance Evaluation Of A Packed Column For Gas Absorption
    • 7. Determination Of Distribution Coefficient Of A Solute From A Liquid Mixture Using A Suitable Solvent For Liquid-Liquid Extraction In A Mixer Settler Unit
    • 8. Determination Of The Crystal Yield And Crystal Size Distribution By Performing Batch Crystallization Of A Solution In A Batch Crystallizer
    • 9. Determination Of The Drying Rate And Equilibrium Moisture Content Using A Tray Dryer
    • 10. Evaluation Of Hydrodynamics In A Packed Column
    • 11. Determination Of The Percentage Recovery Of An Essential Oil By Using Steam Distillation Apparatus
    • 12. Determination Of Height Equivalent To Theoretical Plates (HETP) In A Packed Distillation Column
    • 13. Determination Of Drying Rate Of A Wet Solid Using A Fluidized Bed Dryer
    • 14. Performance Analysis Of A Rotary Dryer To Investigate The Drying Efficiency And Residence Time Of Solids In A Rotary Dryer
    • 15. Analysis Of The Role Of An Entrainer In Breaking The Azeotrope By Performing Azeotropic Distillation

Summer Internship II [114706]

Details for Summer Internship II will be provided by the department. This component carries 8 credits.

Project-I [114707]

Details for Project-I will be provided by the department. This component carries 6 credits.

← BEU PYQ Home