Larva (2005)

Another evil conspiracy is in the works. This time it's a rich guy who owns a beef distibuting company, in league with genetic engineers, trying to make his product sell more, or better, or something. In any event, they're messing with the beef, by treating it with some kind of parasite. Guess what? Something goes wrong, and the parasites go on a rampage.

It's actually creepy and scary enough to work, in spite of the recycled plot devices. The movie offers exploding stomachs (Alien), the conspirators covering up their actions at the expense of more lives (X Files), dumb sheriffs (lots of movies), and dumber townspeople (also lots of movies). There's also lots of bloody bodies, both humans and creatures. The acting is fairly decent, and the quasi-bat like design of the rapidly proliferating monsters is ugly enough for this sort of flick. The action is paced rather well, gory scenes balanced with scientific analysis exposition, even some "Don't look behind that door!" type stuff. Of course, they run the obligatory victim mauling scenes, including the usual couple-making-out-gets-killed routine.

All in all, a capably managed low budget horror movie, which manages a fair number of good old fashioned scares.


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tech News:

By manipulating a few photons, a team of scientists from Griffith University Center for Quantum Dynamics, has managed to measure a difference in length less than one ten thousandth of a width of a human hair. The principle consists of sending a single photon through the sample which needs to be measured, which will afterwards pass again for a number of times.

Even Dr Geoff Pryde, the man who created the technique, is surprised on how little amounts of light the measuring device uses. For example, the barcode reader used in supermarkets use about a few quadrillions of photons to make a scan and even a LED in stand-by can emit close to a trillion photons a second.

The process is somehow similar to the interferometry process of light used in many measuring techniques. Nevertheless, the process has been greatly improved by the Australian team of researchers, by pushing the photons to gather as much information while executing a pass through the sample, as Heisenberg's Principle of Uncertainty allows it to.

This means that this is the best measuring technique by using light interferometry up to date. The applications for such a device are clearly obvious and can be used in areas such a medical research, where faint amounts of light are needed to make certain measurements, without damaging a sensitive biological sample.

The first light interferometers were used by physicists to detect the so-called mysterious 'aether', which they believed was moving through. The measurements regarding the speeds at which we are moving through this aether revealed contradictory results. Finally, Albert Einstein formulated the Theory of Relativity, which postulated that actually light was composed of photon particles, thus resolving the aether paradox and revealing the fact that all there was is vacuum.

Higher precision measuring instruments are always needed to lead us to unexpected scientific discoveries that will turn us towards new technologies and applications.

The team is now hoping that they will be able to improve the measuring method by determining finer measurement to be made with a single photon of light. Though in principle this would be possible, the technological problems could make this effort futile.

The quantum physics from which the method derives can be a strange world where a single particle of matter can be in two places at the same time and take two different paths to the same destination point, which can be determined by knowing the difference in length between the two paths.

The method used by Griffith involves using a photon that will describe multiple trajectories through the sample, before it is sent towards the detector, thus amplifying the effect of the difference in path lengths to enable a better measuring resolution. The same principle of measurement can be applied for other quantities like speed and frequency.