EQuad Engineering Services
10+ Wavemaker Interview Questions and Answers
Q1. list the surface finish symbols and its significance
Surface finish symbols are used to indicate the type of surface finish required for a part.
Surface finish symbols are typically represented by a series of lines, circles, and triangles.
The symbols are used to indicate the type of surface finish required for a part, such as roughness, waviness, or lay.
Examples of surface finish symbols include Ra for roughness average, Rz for roughness depth, and W for waviness.
Q2. identification of 1st and 3rd angle projection symbols
1st and 3rd angle projection symbols are used in engineering drawings to indicate the orientation of the object being depicted.
1st angle projection symbol is a triangle with the number '1' inside and is used in Europe and Asia.
3rd angle projection symbol is a triangle with the number '3' inside and is used in North America.
The symbol is usually placed in the lower right-hand corner of the drawing.
The symbol indicates the direction of the view and the position of the object in...read more
Q3. draw orthographic projections of the given isometric view
Draw orthographic projections of given isometric view.
Identify the isometric view and its orientation
Draw the front, top, and right views using the correct scale and proportions
Ensure that all lines are parallel and dimensions are accurate
Label each view with the appropriate dimensions and notes
Check for any errors or inconsistencies
Q4. relationship between Potential and Kinetic energy in bernoulli's theorem
Bernoulli's theorem states that potential energy decreases as kinetic energy increases in a fluid flow.
Bernoulli's theorem is based on the conservation of energy in a fluid flow.
Potential energy is the energy possessed by a fluid due to its position or elevation.
Kinetic energy is the energy possessed by a fluid due to its motion.
As the velocity of a fluid increases, its kinetic energy increases and its potential energy decreases.
This relationship is described by Bernoulli's e...read more
Q5. difference between relative humidity, absolute humidity and saturation humidity
Relative humidity is the ratio of actual water vapor present in the air to the maximum amount of water vapor air can hold at a given temperature.
Absolute humidity is the actual amount of water vapor present in the air.
Saturation humidity is the maximum amount of water vapor air can hold at a given temperature.
Relative humidity and absolute humidity are measured in percentage while saturation humidity is measured in grams per cubic meter.
Relative humidity is affected by temper...read more
Q6. How would you counter temperature loads in structure
Temperature loads in structures can be countered by using expansion joints, proper material selection, insulation, and thermal breaks.
Use expansion joints to allow for thermal expansion and contraction without causing damage to the structure
Select materials with low thermal expansion coefficients to minimize the effects of temperature changes
Incorporate insulation to reduce the transfer of heat and minimize temperature fluctuations within the structure
Use thermal breaks to cr...read more
Q7. calculation of gear ratio,
Gear ratio is the ratio of the number of teeth on the driven gear to the number of teeth on the driving gear.
Count the number of teeth on the driving gear (gear attached to the motor) and the driven gear (gear attached to the load)
Divide the number of teeth on the driven gear by the number of teeth on the driving gear to get the gear ratio
For example, if the driving gear has 20 teeth and the driven gear has 40 teeth, the gear ratio is 2:1
Q8. Bracing arrangement and why are they needed
Bracing arrangements are needed in structural engineering to provide stability and resist lateral forces.
Bracing arrangements help to prevent buckling and sway in structures
They are needed to resist lateral forces such as wind or earthquakes
Different types of bracing arrangements include diagonal bracing, cross bracing, and portal bracing
Bracing can be made from materials like steel, concrete, or timber
Q9. Lateral torsional buckling and how to counter
Lateral torsional buckling is a phenomenon in which a beam undergoes both lateral deflection and twisting under load, potentially leading to structural failure.
Lateral torsional buckling can be countered by increasing the beam's stiffness through the use of larger sections or adding lateral bracing.
Designing the beam with a more compact shape can also help prevent lateral torsional buckling.
Using materials with higher yield strength can increase the beam's resistance to later...read more
Q10. Steel connections and design ( Shear and Moment connection understanding?
Understanding steel connections and design for shear and moment forces is crucial for structural engineers.
Steel connections transfer loads between beams, columns, and other structural members.
Shear connections resist forces parallel to the plane of the connection, while moment connections resist forces perpendicular to the plane.
Common types of shear connections include bolted connections, welded connections, and shear tabs.
Moment connections include moment-resisting frames,...read more
Q11. Load calculation as per American codes or European codes
Load calculation is typically done as per the relevant building codes, such as American or European codes.
Load calculation is based on the specific requirements and regulations outlined in the relevant building codes.
American codes, such as ASCE 7, provide guidelines for load combinations, dead loads, live loads, snow loads, wind loads, seismic loads, etc.
European codes, such as Eurocode, also provide similar guidelines for load calculations based on regional factors and desi...read more
Q12. mechanical advantage of pulley
Pulley provides mechanical advantage by reducing the amount of force required to lift a load.
A pulley system can have multiple pulleys to increase mechanical advantage
The mechanical advantage of a pulley is equal to the number of supporting ropes or cables
Pulleys can change the direction of the force applied to lift a load
Examples of pulleys include cranes, elevators, and flagpoles
Q13. types of tolerances and fits
Tolerances and fits are important in product development. Tolerances refer to the allowable variation in dimensions, while fits describe the degree of interference between mating parts.
Tolerances can be classified as either unilateral or bilateral
Fits can be classified as clearance, interference, or transition
Examples of fits include press fit, slip fit, and force fit
Q14. One way and Two shear critical areas
Shear critical areas are regions in a structure where shear forces are significant and can lead to failure.
One shear critical area occurs when the shear force is maximum at a single point or section along the member.
Two shear critical areas occur when the shear force is significant at two or more points or sections along the member.
Shear critical areas are important to identify in structural design to ensure the safety and stability of the structure.
Examples include beams wit...read more
Q15. Wind loads on pipe racks
Wind loads on pipe racks are important to consider in structural design to ensure stability and safety.
Wind loads on pipe racks can be calculated using the ASCE 7 standard or other relevant codes and standards.
Factors such as wind speed, direction, and exposure category must be taken into account.
The shape and orientation of the pipe rack can also affect the wind loads it experiences.
Wind tunnel testing or computational fluid dynamics (CFD) analysis may be used to determine m...read more
Q16. Angle of projection
Angle of projection refers to the angle at which an object is launched into the air.
Angle of projection affects the range and height of the projectile.
The optimal angle of projection for maximum range is 45 degrees.
Different angles of projection result in different trajectories of the object.
The angle of projection can be calculated using trigonometry.
Examples: throwing a ball, launching a rocket, kicking a soccer ball.
Q17. Strength of material
Strength of material refers to the ability of a material to withstand applied forces without failure.
Strength of material is typically measured through tensile, compressive, and shear tests.
Factors affecting strength include material composition, temperature, and loading conditions.
Examples of materials with high strength include steel, titanium, and carbon fiber.
Design engineers must consider material strength when selecting materials for a specific application.
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