Ionut Budisteanu took home $75,000 for using artificial intelligence to create a model for a low-cost, self-driving car.
Ionut Budisteanu, a 19-year-old Romanian student, took home first place in Intel Corp.'s International Science and Engineering Fair for using artificial intelligence to create a model for a low-cost, self-driving car.
Budisteanu's self-driving car includes 3-D radar and mounted cameras. The car is reportedly capable of detecting traffic lanes and curbs and would cost only $4,000.
For coming up with a feasible design for such a device, Budisteanu snagged the Gordon E. Moore Award of $75,000, named in honor of the Intel co-founder and fellow scientist. According to Budisteanu's research, in 2004 car accidents caused approximately 2.5 million deaths worldwide. Some 87 percent of those crashes were caused by driver error, according to Budisteanu's research, which used data compiled by the World Health Organization.
Eesha Khare, an 18-year-old from Saratoga, Calif., was awarded the Intel Foundation Young Scientist Award of $50,000. She developed a tiny device that fits inside cell phone batteries, allowing them to fully charge within 20-30 seconds, according to Intel. Eesha's invention also has potential applications for car batteries, Intel said.
Ionut Budisteanu, 19, of Romania (center) with second-place winners Eesha Khare, 18, of Saratoga, Calif. (left) and Henry Lin, 17, of Shreveport, La. celebrate their awards at the Intel International Science and Engineering Fair, billed as the world's largest high school science research competition.
Henry Lin, 17, of Shreveport, La., also received the Intel Foundation Young Scientist Award of $50,000. Intel said Lin simulated thousands of clusters of galaxies, providing scientists with new data to study the mysteries of astrophysics.
Roughly 1,600 young scientists were chosen to compete in the Intel International Science and Engineering Fair, held earlier this month in Phoenix. They were selected from 433 affiliate fairs in more than 70 countries, regions and territories, according to Intel. More than 500 finalists received awards and prizes for their innovative research.
Awards included 17 "Best of Category" winners who each received a $5,000 prize. The Intel Foundation also awarded a $1,000 grant to each winner's school and to the affiliated fair they represent, Intel said.
He picked a very timely subject. This is from a May 30, 2013 NHTSA press release: '"We're encouraged by the new automated vehicle technologies being developed and implemented today, but want to ensure that motor vehicle safety is considered in the development of these advances," said NHTSA Administrator David Strickland.'
The press release has some interesting information, such as a five level definition of vehicle automation. http://www.nhtsa.gov/About+NHTSA/Press+Releases/U.S.+Department+of+Transportation+Releases+Policy+on+Automated+Vehicle+Development
Anyone else noticed that the list of winners is HEAVILY dominated by immigrants or first-generation citizens, at least if we use names as a proxy for this? It is amazing to see liberal arts majors earn in the high $20s and engineering majors start in the high $40s and then see people claim with straight face that there is not enough incentive for STEM majors. I could make generalizations about willingness to work hard, but that would start a religious war here.
The problem is that banking, health care, and business all pay at least that much, or far more if you also have the math chops and work ethic to be a good engineer.
This kid would make a fortunate guaranteed on Wall Street. Going into STEM results in mediocre pay unless you land your moon shot like a Zuckerberg or Gates.
"developed a tiny device that fits inside cell phone batteries, allowing them to fully charge within 20-30 seconds, according to Intel"
Can somebody tell me how it is possible to transfer the energy needed to operate a phone in 30 seconds?
Take an iPhone with a 1.4AHr battery. Q=It=CV last time I looked. That works out to 168 Amperes for 30 seconds. OK that's a pretty big wire, but let's ignore that. Now the battery is going to be charged from 3.3V to 3.7V or average 3.5V and the energy transferred is 17.64Kjoules. Lets assume I charge this mystery capacitor to 4.1V and it discharges into the battery to yield the 3.7V finished voltage. That takes a capacitor of 12600 farads. Assuming a 5 volt rated cap, that would be about 6 times the size of what is commercially available, so this would represent major breakthrough in storage. At present this part would be about 2.5 inches diameter and 18 inches long. At the beginning of the discharge of this super capacitor, it has 105.9Kjoules energy stored. At the end it has 86.25Kjoules. Some 2Kjoules is missing. With all these charges moving around, that was what was radiated. I don't know who at Intel came up with the 30 second number, but I think their math is suspect.