Exam Details
| Subject | Fluid Mechanics | |
| Paper | ||
| Exam / Course | Diploma in Mechanical Engineering (DMEVI)& B.Tech. MECHANICAL ENGINEERING 1-4 (BTMEVI) | |
| Department | School of Engineering & Technology (SOET) | |
| Organization | indira gandhi national open university | |
| Position | ||
| Exam Date | June, 2015 | |
| City, State | new delhi, |
Question Paper
State and prove the Pascal's law and give some examples where this principle is applied.
A wooden block (specific gravity 0·7) of width 15 cm x depth 30 cm and length 150 cm floats horizontally on the surface of sea water (sp. wt. 10 Calculate the volume of water displaced, depth of immersion and the position of centre of buoyancy. Also find the metacentric height and the righting moment for a tilt of 5°.
State and explain Archimedes principle and mention some of its practical applications.
An oil tanker 4·5 m long, 3 m wide and 1·5 m deep is half filled with oil. What should be the linear horizontal acceleration in the direction of tank movement so that after attainment of relative equilibrium, the depth at the forward edge is zero?
Define path line, streak line and the streamline. For what type of flow are these lines identical
Water flows through a 10 cm diameter pipe with velocity 8 m/s. Compute the discharge rate. If the same flow now takes place through a 20 cm diameter pipe, evaluate the new flow velocity.
Define rotation as applied to fluid flow. Derive an expression for fluid rotation in two-dimensional flow.
The velocity component of a particular two-dimensional, steady, incompressible flow is given by
u cos hy 1.
Find the y-component of velocity presuming that v 0 at y 0. Also work out the stream function.
Define and explain the significance of the kinetic energy correction factor and the momentum correction factor.
A rectangular orifice 1·25 m deep and 75 cm wide in the side of a tank has its top edge 1 m below the free water surface in the tank. Find the discharge through the orifice. Take Cd 0·6.
Explain the significance of dimensional analysis as applied to fluid flow problems.
The efficiency of a fan depends on the density the dynamic viscosity of the fluid, the angular velocity diameter of the rotor and the discharge Express n in terms of dimensionless parameters.
Describe Reynolds' experiments to demonstrate the laminar and turbulent fluid flows. How is the type of flow related to Reynolds number?
Determine the nature of flow when an oil of specific gravity 0·85 and kinematic viscosity 1·8 x flows in a 10 cm diameter pipe at 0·5 litre per second.
A wooden block (specific gravity 0·7) of width 15 cm x depth 30 cm and length 150 cm floats horizontally on the surface of sea water (sp. wt. 10 Calculate the volume of water displaced, depth of immersion and the position of centre of buoyancy. Also find the metacentric height and the righting moment for a tilt of 5°.
State and explain Archimedes principle and mention some of its practical applications.
An oil tanker 4·5 m long, 3 m wide and 1·5 m deep is half filled with oil. What should be the linear horizontal acceleration in the direction of tank movement so that after attainment of relative equilibrium, the depth at the forward edge is zero?
Define path line, streak line and the streamline. For what type of flow are these lines identical
Water flows through a 10 cm diameter pipe with velocity 8 m/s. Compute the discharge rate. If the same flow now takes place through a 20 cm diameter pipe, evaluate the new flow velocity.
Define rotation as applied to fluid flow. Derive an expression for fluid rotation in two-dimensional flow.
The velocity component of a particular two-dimensional, steady, incompressible flow is given by
u cos hy 1.
Find the y-component of velocity presuming that v 0 at y 0. Also work out the stream function.
Define and explain the significance of the kinetic energy correction factor and the momentum correction factor.
A rectangular orifice 1·25 m deep and 75 cm wide in the side of a tank has its top edge 1 m below the free water surface in the tank. Find the discharge through the orifice. Take Cd 0·6.
Explain the significance of dimensional analysis as applied to fluid flow problems.
The efficiency of a fan depends on the density the dynamic viscosity of the fluid, the angular velocity diameter of the rotor and the discharge Express n in terms of dimensionless parameters.
Describe Reynolds' experiments to demonstrate the laminar and turbulent fluid flows. How is the type of flow related to Reynolds number?
Determine the nature of flow when an oil of specific gravity 0·85 and kinematic viscosity 1·8 x flows in a 10 cm diameter pipe at 0·5 litre per second.
Other Question Papers
Departments
- Centre for Corporate Education, Training & Consultancy (CCETC)
- Centre for Corporate Education, Training & Consultancy (CCETC)
- National Centre for Disability Studies (NCDS)
- School of Agriculture (SOA)
- School of Computer and Information Sciences (SOCIS)
- School of Continuing Education (SOCE)
- School of Education (SOE)
- School of Engineering & Technology (SOET)
- School of Extension and Development Studies (SOEDS)
- School of Foreign Languages (SOFL)
- School of Gender Development Studies(SOGDS)
- School of Health Science (SOHS)
- School of Humanities (SOH)
- School of Interdisciplinary and Trans-Disciplinary Studies (SOITDS)
- School of Journalism and New Media Studies (SOJNMS)
- School of Law (SOL)
- School of Management Studies (SOMS)
- School of Performing Arts and Visual Arts (SOPVA)
- School of Performing Arts and Visual Arts(SOPVA)
- School of Sciences (SOS)
- School of Social Sciences (SOSS)
- School of Social Work (SOSW)
- School of Tourism & Hospitality Service Sectoral SOMS (SOTHSM)
- School of Tourism &Hospitality Service Sectoral SOMS (SOTHSSM)
- School of Translation Studies and Training (SOTST)
- School of Vocational Education and Training (SOVET)
- Staff Training & Research in Distance Education (STRIDE)
Subjects
- Advanced Dynamics Of Machine
- Automobile Engineering
- Combustion Engineering
- Computer Aided Manufacturing
- Computing Aided Design
- Design of Machine Elements
- Engineering Metallurgy
- Engineering Thermodynamics
- Experimental Stress Analysis
- Finite Element Analysis
- Fluid Mechanics
- Heat And Mass Transfer
- Heat Transfer
- I.C. Engines
- Industrial Engineering
- Industrial Ergonomics
- Industrial Measurement And Quality Control
- Industrial Organization And Management
- Kinematics and Dynamics of Machines
- Machine Design - I
- Machine Design-Ii
- Machine Drawing
- Machines Tools
- Maintenance Engineering
- Material Science
- Materials Handling
- Mechanical System Design
- Mechanical Vibration
- Mechanics Of Materials
- Mechatronics
- Metrology
- Metrology And Quality Control
- Non-Conventional Energy Resources
- Non-Destructive Testing
- Nuclear Power Engineering
- Optimisation Techniques In Engineering
- Optimization For Engineering Design
- Power Plant Engineering
- Power Transmitting Elements
- Product Development And Design
- Production And Operations Management
- Production Technology - Ii
- Production Technology-I
- Refrigeration And Air Conditioning
- Refrigeration System
- Robotics
- Safety Engineering
- Technical Entrepreneurship
- Thermal Engineering
- Thermal Engineering - I
- Thermofluid Engineering
- Total Quality Management (Tqm)
- Tribology
- Turbo Machines
- Unconventional Manufacturing Processes
- Welding Engg.