- Chemical Engineering Basics - Section 1
- Chemical Engineering Basics - Section 2
- Chemical Engineering Basics - Section 3
- Chemical Engineering Basics - Section 4
- Chemical Engineering Basics - Section 5
- Chemical Engineering Basics - Section 6
- Chemical Engineering Basics - Section 7
- Chemical Engineering Basics - Section 8
- Chemical Engineering Basics - Section 9
- Chemical Engineering Basics - Section 10
- Chemical Engineering Basics - Section 11
- Chemical Engineering Basics - Section 12
- Chemical Engineering Basics - Section 13
- Chemical Engineering Basics - Section 14
- Chemical Engineering Basics - Section 15
- Chemical Engineering Basics - Section 16
- Chemical Engineering Basics - Section 17
- Chemical Engineering Basics - Section 18
- Chemical Engineering Basics - Section 19
- Chemical Engineering Basics - Section 20
- Chemical Engineering Basics - Section 21
- Chemical Engineering Basics - Section 22
- Chemical Engineering Basics - Section 23
- Chemical Engineering Basics - Section 24
- Chemical Engineering Basics - Section 25
- Chemical Engineering Basics - Section 26
- Chemical Engineering Basics - Section 27
- Chemical Engineering Basics - Section 28


Chemical Engineering Basics - Engineering
Q1: Ceramic materials areA organic in nature.
B stronger in compression than in tension.
C always amorphous in nature.
D always bad heat conductors.
ANS:B - stronger in compression than in tension. The statement "ceramic materials are stronger in compression than in tension" reflects a common mechanical property of ceramics. When subjected to mechanical loads, ceramics tend to exhibit higher strength and resistance to failure under compressive stresses compared to tensile stresses. This behavior arises from the inherent structure and bonding characteristics of ceramic materials. Ceramics typically have strong ionic or covalent bonds between atoms or ions, which provide high resistance to compression. However, these bonds are relatively weak against tensile forces, making ceramics more susceptible to failure when pulled apart. Furthermore, the microstructure of ceramics often contains flaws, such as pores or grain boundaries, which can act as stress concentrators. Under tensile loading, these flaws can initiate cracks and propagate, leading to brittle fracture. In compression, however, these flaws are more likely to close or be compressed, reducing their impact on material failure. Overall, the tendency for ceramics to be stronger in compression than in tension is an important consideration in engineering design, particularly when selecting materials for applications subjected to mechanical loading. |


For help Students Orientation
Mcqs Questions
One stop destination for examination, preparation, recruitment, and more. Specially designed online test to solve all your preparation worries. Go wherever you want to and practice whenever you want, using the online test platform.