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Ford EcoBoost successful because of Soviet laser weapons system expert?

Mike Kluzner is a man of many talents. Not only is he the software engineer responsible for fuel system diagnostics for Ford globally, he "got his start designing laser weapon systems capable of disabling the navigation systems of enemy satellites" for the former Soviet Union. Quite a résumé, wouldn't you say?
You may be asking yourself the same question that popped into our minds upon reading about Mr. Kluzner: What do laser weapon systems have to do with Ford and its EcoBoost engines? We'll let the man answer himself. "The same process for analyzing key physical relationships works for what we do today in engine combustion, catalyst chemistry and mechanics," says Kluzner. "These are all part of Ford's software engineering expertise." Who are we to argue?
Ford also employs an engineer who previously designed software to detect damage to the heat tiles on the International Space Station, as well as one who's past work involved particle physics, says the automaker in the press release below. David Bell (pictured above right), global boost system controls engineer for Ford, describes the software running EcoBoost as "the secret sauce" that makes the technology work as the driver intends and demands.

Mustang parts under the new Lincoln Aviator mean good things for Ford

NEW YORK — As we mentioned last night, underneath the new Lincoln Aviator "concept" there appears to be an independent rear suspension lifted right from the Ford Mustang parts bin. And while it's pretty cool on its face that Mustang rear-drive platform bits are being reused in the broader Ford universe, what this means for the next Explorer could be really cool. A quick caveat: The Aviator here in New York is very close to the production version, but it's not technically a production car. It looks hand-built, with temporary exhaust and some show-car touches. The suspension underneath looks exactly like a Mustang's, but the actual production Aviator will almost certainly use beefier components with the same basic design and geometry, since the Aviator will be much heavier than the smaller Mustang. That being said, we're fairly confident that even at this early stage, the Mustang-derived suspension seen in New York is a preview of what'll be under the production Aviator. Furthermore, Ford won't say it, but based on what we're seeing on Aviator, it's a safe bet that Ford will utilize the Aviator platform for the next Explorer. That would enable the economies of scale necessary to produce a brand new rear-drive-based SUV platform in the first place. It also means that the Explorer should be available without AWD — and given the stable of powerful EcoBoost engines, and the competent 10-speed automatic in the parts bin, a rear-drive Explorer has a shot at being a decent driver. Aviator wouldn't go rear-drive-based if driving dynamics weren't important; Explorer should inherit these priorities. More evidence: The Explorer spy shots we saw back in February sure share the Aviator's general proportions. Even back then, before Aviator was revealed, we were hypothesizing that an EcoBoost 3.5-liter-powered version could boast as much as 400 horsepower, if the Expedition's tune were adopted. Suddenly, the Explorer seems very interesting. So, an EcoBoost, rear-drive Explorer sure sounds like something Ford Performance would be interested in, right? We knew an Explorer ST is coming, but with 365-400 horsepower potential and a chassis designed with dynamics in mind, it doesn't seem like as much of a stretch as the Edge ST. And a performance-oriented AWD system is a possibility, too. That's an area where Ford has been gathering experience at a rapid pace. What do we not expect from a new Explorer? A V8.

Ford looks to space robots to improve car-to-car communications [w/video]

Ford has partnered with St. Petersburg Polytechnic University for three years to research various kinds of connected vehicle communications. The university tie-up is part of its study of space robots, NASA systems created to enable space-to-Earth communication, and the university's own development of systems that enable communication between the International Space State and Earth.
The objective is for Ford to engineer layers of robust networks and redundancy systems that will allow your car to speak to other cars, to emergency vehicles, to infrastructure like traffic lights and buildings, and to the cloud. Benefits would come in just about every area of transit, from avoiding accidents, to getting medical workers to an accident more quickly, to improving the flow of traffic during rush hour.
Check out the press release below for details on what Ford wants to learn from the JUSTIN Humanoid and NASA Robonaut R2, and a video of technical leader Oleg Gusikhin discussing his interest in the project.