Human-made earthquakes have been one of the greatest threats to human generation on earth. Each year, millions of people die due to the triggering of human-made earthquakes across the world. However, soon the risks of the earthquake will be efficiently minimised as an international team of scientists has developed a new software tool that can calculate the possibilities of triggering humanmade earthquakes.
Two scientists at Stanford University, California have come up with a new software tool that can reduce the jeopardy of activating human-made earthquakes. The software titled as ‘Fault Slip Potential (FSP)’, will be a free software and will be available across numerous platforms, reported China’s state-run Xinhua news agency. The downloading option for the new software will be starting from 2nd March 2017.
Fault Slip Potential (FSP) software tool is intended for lessening the potentiality of setting off synthetic earthquakes in the locations, where production activities related to oil and gas industry are likely to activate glide in nearby faults.
According to Mark Zoback, professor of geophysics at Stanford’s School of Earth, Energy and Environmental Sciences, and the co-researcher of the project, “Each crust of the earth has a fault, and hence they can’t be avoided. But with the help of technological advancements, such risks can be recognised and hence circumvented.”
Taking the statement further, Mark said, “Fortunately, the mainstream of the faults are dormant and pose no vulnerability to the general public. But some of them are still in operating condition and can pose higher risks to the public and valuables. The steps and tricks to recognise which faults are likely to be hazardous are quite problematic, and but with our new software tool, they can easily be recognised.”
The functionality of the FSP software tool is based on three key pieces of information that will assist in determining the prospect of a blunder being hard-pressed to slither. The first is how much sewage injection will boost aperture pressure at the locations where oil and gas production activities take place; the second is the idea of the pressures acting in the world, and the third is information about the pre-existing faults in the region.
The project was co-led by Mark Zoback and his graduate student Rall Walsh from the same university.