This works on the same phenomenon as the shock absorbers that the cars have. Also, it would be same as a spring.
how can studying earthquake damaged help designers improve future construction is by understanding what would you need and to build this or that building to prevented damaged building
They could use the information from the seismic wave scale
Bear in mind that it is not just the Richter scale measurement which determines the severity of a tsunami which results from an earthquake; the location of the earthquake is also relevant. And inland earthquake does not produce the same tsunami as an underwater earthquake. That said, 8.3 is an extremely powerful earthquake which could produce a tsunami that would travel for thousands of miles and cause immense dammage over a very wide area.
No it isn't. There are several factors which contribute to earthquake fatalities: the size of the earthquake, the amount of population in the affected area, and the quality of construction of the buildings in that area. So, a huge earthquake taking place in an unpopulated region of Alaska, for example, would cause few if any fatalities, whereas a much small earthquake in Haiti caused lots of fatalities, due both to density of population and to poor construction standards.
Sometimes, buildings weakened by an earthquake, then it would collapse during a aftershock.
Japan
They would all fall down and people would die under them. Take a look online of pictures of earthquakes in villages in Italy or Greece.
This works on the same phenomenon as the shock absorbers that the cars have. Also, it would be same as a spring.
The Mercalli scale would most likely be used to measure earthquake damage.
A 7.8 magnitude earthquake would be considered major and have the potential to cause widespread damage. Buildings, bridges, and infrastructure could be significantly impacted, leading to casualties and disruptions to communities. Tsunamis may also be triggered depending on the location of the earthquake.
The Modified Mercalli Intensity (MMI) scale is typically used to assess the level of earthquake damage to homes and other buildings. The scale assigns a value based on observed effects and is used to quantify the intensity of shaking at a specific location during an earthquake.
The Modified Mercalli Intensity (MMI) scale is commonly used to assess earthquake damage to buildings and structures. This scale measures the intensity of shaking felt at a given location and categorizes the damage caused based on a set of criteria.
flimsy
An 8.25 magnitude earthquake on the Richter Scale is considered very powerful. It has the potential to cause widespread devastation, including buildings collapsing, landslides, and tsunamis in coastal areas. The impact would be significant and could result in loss of life and extensive damage to infrastructure.
An earthquake with a magnitude of 10.0 would have catastrophic consequences, including widespread destruction of buildings and infrastructure, massive loss of life, and long-lasting economic and social impacts. The shaking would be extremely intense, causing buildings to collapse, landslides, and tsunamis. Recovery efforts would be challenging and costly, with communities struggling to rebuild and recover from the devastation.
It would depend on where is happened. In an unpopullated area, the damage would be minimal. In a populated area like the case of the recent Japan earthquake, they had almost total devastation with a 9. Earthquake.