Science Fiction or Science Fact: The Star Trek Replicator

The Replicator, as seen in Star Trek: The Next Generation, was used primarily to provide food for the crew in the final frontier. According to fan theories, the device functioned by rearranging the subatomic particles already found in abundance, across the universe. Starting with atoms of carbon, hydrogen and adding proteins and acids, the machine could easily recreate meat cuts, among all other sorts of foods and beverages (Like tea, Earl Grey, hot.)

While significant liberties were taken with the science and technology concepts surrounding the replicator, the first attempts at creating a real life system that theoretically may turn energy to matter are currently underway. The secret? Really big lasers.

The Extreme Light Infrastructure, currently under development in Europe, is being billed as “the most powerful laser ever” and is expected to be able to produce small particles, in a vacuum. While that is a big leap away from a nearly-instant steak dinner, the core concept is fairly similar. The biggest challenge to physicists is developing a laser powerful enough to prevent particles from becoming antiparticles, where they are inevitably destroyed. Once that problem is resolved, researchers can get to work on manipulating the particles into a substantial mass.

The Extreme Light Infrastructure (ELI) is currently in its implementation phase, and serves as the “world’s first international laser research infrastructure.” ELI aims to use research surrounding high-powered lasers, for greater developments in the fields of physics, medicine, and new emerging technologies.

Often credited as the most scientifically accurate sci-fi entries, the fact that researchers are actively researching the root concepts behind Star Trek replicator only echoes that statement. It may only be the next generation before we see the first attempts at food replication. Find the original story here.

 

Weekly Wrap Up (May 20, 2016)

“Set phasers to stun!” As one of the most-beloved sci-fi series of all time, Star Trek has captivated generations. Often praised for its surprisingly accurate scientific applications, choosing to use the fictional “phaser” rather than a laser in the show and films seems uncharacteristic of the franchise. Find out why the creators of Star Trek ommitted the use of lasers in this week’s Science Fiction or Science Fact post by clicking here.

What if you could “print out” a laser so small and inexpensive, it is practically disposable? Research teams in France and Hungary have developed tiny laser systems, using inkjet printing, that would cost mere cents to manufacture. While the widespread use of these “disposable lasers” is held back by the necessity of a high-energy power source, the researchers hope to find a smaller, simpler way to power the technology for future use in biological and chemical sample analysis. Learn more about the exciting process here by clicking here.

One of the innumerable advantages laser technology has given humanity is the ability to learn more about what exists beyond our atmosphere. Specifically, lasers have had a large impact on what we know to be true about our moon. The launch of NASA’s Lunar Reconnaissance Orbiter and Lunar Crater Observation and Sensing Satellite in 2009 helped test one-way laser communications, as well as create 3D maps of the lunar surface. Discover more about the groundbreaking discoveries and more by clicking here.

In 1962, researchers at MIT fired a laser beam at the moon’s surface, in the first successful attempt at “lunar laser ranging.” Lunar laser ranging is the process in which a laser is used to measure the distance between the Earth and the moon. In the last 50 years, the measurements have become more precise; with discrepancies in mere millimeters. These days, however, researchers are running into challenges due to degrading equipment on the lunar surface. Find out more about what lunar laser ranging has taught us about the relationship between the Earth and moon by clicking here

In April, the Photonics Cluster on RWTH Aachen campus held its official grand opening. The facility is designated for research and collaboration between members of the scientific community, with a focus on laser applications. The grand opening event coincided with AKL ‘16 Eurogress, giving nearly 700 individuals the opportunity to view the facility. Learn more by clicking here.

Are you interested in laser safety training, but are unsure if online classes are right for you? Check out our 5 Benefits of Online Laser Safety Officer Training post, where we break down the beneficial aspects of taking laser safety officer courses online. If cost, convenience, or accessibility are preventing you from advancing your laser safety education, online courses may be a perfect solution. Check out the 5 key benefits of our online courses by clicking here.

Should you decide that online courses are suited for you, take a look at our currently offered courses by clicking here.

Science Fiction or Science Fact: Why Star Trek Opted For Phasers Over Lasers

In the past, we looked at why lightsabers will likely never be holstered to our hips, unless we live in a galaxy far, far away. But what about in “the final frontier”? In the Star Trek universe, phasers are far more commonplace than laser-based weapons and technology. Today, we’re going to look at why the creators chose to use mostly phasers, over lasers, while also analyzing whether or not phasers are any more likely to exist than the mostly-debunked technology of the other space-adventure universe.

In the original series’ pilot, as well as some of the following episodes, lasers were present aboard and used against The Enterprise. Giving credibility to the widely-held belief that Star Trek’s creators were among most scientifically-aware science fiction developers of possibly all time, they realized that lasers would only work as a weapon in the show for a small period of time. As the viewing public, and world at large, learned more about lasers and their capabilities, the creators felt that the audience would eventually catch on to the inaccurate portrayal of laser technology. In The Next Generation, the laser is considered a primitive weapon, opting instead for phasers, a different sort of energy-based weapon, created for the Star Trek universe.

That is not to say that lasers were completely eliminated from Star Trek. The Borg cutter weapon is a notable exception to the deviation from lasers. Using directed laser energy, the cutting beam found on Borg ships was able to remove sections of planets and ships, with exact precision. There were other small instances of lasers in the series, but mostly gave way to phasers and other directed energy weapons.

The word phaser comes from “Photon” and “Maser.” At the time of Star Trek’s initial development, the laser was relatively new. The maser, however, had been around for a while, and was generally known to be capable of producing long-range, coherent beams of electromagnetic radiation. The photon masers in Star Trek release “rapid nadons,” a fictional subatomic particle.  Additionally, a phaser can allow for a change of power (Such as “stun” or “kill”)  as opposed to a laser, which has one solid, consistent, beam of light and energy. When dealing with weaponry, a beam that can be adjusted and changed depending on who or what it is being fired at, has a number of advantages in cosmic battle.

So, are phaser weapons any more likely to exist than a lightsaber? Unfortunately, they are both entirely works of science fiction. While Directed Energy Weapons have been in development and researched for decades, the laser weapons of the real world are much closer to a laser pointer than a sophisticated ray gun. They all suffer from the same problem known as divergence. Essentially, laser beams will become larger, depending on the size and wavelength. Longer wavelengths become larger, faster than shorter ones. Shorter wavelengths, however, are more prone to scattering due to rain, dust, smoke, or other particulates in the air.  A larger beam is less susceptible to this, but typically possesses less energy, making it a less effective weapon.

The biggest problem in developing phaser, or even laser weapons? The amount of power needed to even use the weapon. Like lightsabers, there is no current way to condense the mechanisms necessary to give energy to a laser of weapon-like power into a device that can fit into one’s hands. Even including it on a massive spacecraft would likely pose too big of a weight burden to be worth using.

To put it in perspective, current attempts at developing laser weapons require the support of a large truck, and that’s just to test the laser. Not to mention, the level of heat that would be generated when powering the weapon would be too hot to handle, or be anywhere near comfortable around. Meaning a cooling system would be necessary for the weapon, adding even more weight, and equipment to an already lofty weapon. Unless researchers develop a super-battery, or find a way to decrease the heat created when powering a laser, it is safe to say that we will not be firing phasers, or even laser guns, anytime soon.