Sponges regain their shape after being compressed because they are made up of interconnected pores that can be compressed and then rebound back to their original shape. The elasticity of the sponge's material allows it to return to its original form once the external pressure is released.
Spongin, a structural protein found in the skeletons of certain sponges, regains its shape after compression due to its unique molecular structure. It is composed of flexible, fibrous proteins that can bend and stretch without breaking. When compressed, the spongin fibers can temporarily deform, but they return to their original shape when the pressure is released, thanks to their elastic properties. This resilience is crucial for the sponge's ability to withstand environmental pressures while maintaining its structural integrity.
The feature in your ear that accounts for its ability to regain shape is the cartilage. Cartilage is a flexible connective tissue that provides structure while allowing for some pliability. This property enables the ear to maintain its shape after being bent or deformed. Additionally, the skin covering the cartilage also contributes to its resilience.
The substance is likely a liquid. Liquids have definite volume but no definite shape and take the shape of their container. Additionally, liquids are generally considered incompressible compared to gases.
by keeping away from bad/immoral activities.
A solid has a fixed shape and volume and cannot be compressed
A rubber ball is typically considered the most bouncy object due to its elasticity and ability to quickly regain its shape after being compressed.
A cork springs back after being compressed due to its unique cellular structure, which consists of tiny gas-filled cavities. When compressed, these cells are temporarily deformed; however, the elastic properties of the cork material allow it to return to its original shape once the pressure is released. This ability to regain its form is a result of the natural resilience of the cork's cellular composition.
Spongin, a structural protein found in the skeletons of certain sponges, regains its shape after compression due to its unique molecular structure. It is composed of flexible, fibrous proteins that can bend and stretch without breaking. When compressed, the spongin fibers can temporarily deform, but they return to their original shape when the pressure is released, thanks to their elastic properties. This resilience is crucial for the sponge's ability to withstand environmental pressures while maintaining its structural integrity.
It is said to be in a soft shape or in compression.
A sponge can return to its original shape after being compressed because of the air pockets present within its structure. When pressure is applied, these air pockets collapse temporarily, but once the pressure is released, the air flows back into these pockets, causing the sponge to expand back to its original shape.
A gas is a state of matter that can be compressed and can flow. Gases have no definite shape or volume, allowing them to take the shape of their container and flow easily. They can be compressed to reduce their volume.
The feature in your ear that accounts for its ability to regain shape is the cartilage. Cartilage is a flexible connective tissue that provides structure while allowing for some pliability. This property enables the ear to maintain its shape after being bent or deformed. Additionally, the skin covering the cartilage also contributes to its resilience.
Elastic refers to the property of a material to return to its original shape after being stretched or compressed.
solid:rigid, can't be compressed Liquid:flexible, can't be compressed Gas:can't touch, can be compressed.
Solid - cannot be compressed have definite shape and volume Liquid- cannot be compressed have definite volume but no definite shape Gas- no definite shape and volume can be compressed Note: check all above! Done by : Justin Bieber
not easily compressed definite mass i think
The substance is likely a liquid. Liquids have definite volume but no definite shape and take the shape of their container. Additionally, liquids are generally considered incompressible compared to gases.