Ultraviolet image from NASA’s Galaxy Evolution Explorer
shows NGC 3242, a planetary nebula frequently referred to
as “Jupiter’s Ghost.” Image courtesy NASA/JPL-Caltech
You bet there is, says Shouleh Nikzad, senior research scientist at NASA’s Jet Propulsion Laboratory (JPL) at the California Institute of Technology (Caltech) and the principal engineer, co-lead, and technical director for JPL’s Medical Engineering Forum.
Numerous optics and photonics technologies originally developed for space applications have found their way into consumer and medical markets, Nikzad writes in the April 2017 issue of SPIE Professional magazine.
Infrared thermometers, workout machines, compact cameras in mobile phones, and imaging technologies are just a few familiar examples.
Ultraviolet imaging is also used in medical applications
to reveal disease, as in this image of cancerous brain tissue.
"As explorers, we invest great efforts and resources to develop sensors and instruments to measure signatures from faint objects, characterize planetary atmospheres, observe the remnants of dying stars, explore planetary bodies, and search for signs of life," she says.
"These applications require high sensitivity and high accuracy from reliable, robust, compact, low-power, low-mass, noninvasive instruments that can work in harsh and unfriendly environments.
"This probably sounds familiar to those in medical sciences and medical practice," she says. "As human beings, we invest great efforts and resources to help patients. We try to detect faint signals that differentiate good cells from bad, get close to the area of interest without disturbing other areas, … and look for signs of life.
"These conditions also require high sensitivity and high accuracy from reliable, robust, compact, low-power, low-mass, noninvasive instruments that can work in unfriendly environments."
Take the example of the Electronic Nose for environmental monitoring of crewed space missions. JPL developed the ENose to fly on the NASA Space Shuttle during John Glenn Jr.’s second historic flight in 1998 as well as on the International Space Station.
Modeled after the way a mammal’s nose operates, the ENose can be trained to recognize patterns and therefore detect the presence and levels of substances that might be harmful to astronauts.
Some time later, scientists at JPL and the City of Hope, inspired by the fact that some dogs can sniff cancer, collaborated to use the ENose in a proof-of-concept experiment to determine whether the technology can distinguish normal cells from brain-cancer cells and skin-cancer cells.
Ultraviolet imaging is also used in medical applications to reveal disease, as in this image of cancerous brain tissue.
And the benefits between space technologies and medical applications go both ways.
A team from JPL and the Skull Base Institute, for instance, originally developed MARVEL, a multiangle, rear-viewing endoscopic tool, for minimally invasive brain tumor removal. As described in "4-mm-diameter three-dimensional imaging endoscope with steerable camera for minimally invasive surgery (3-D-MARVEL)," in the journal Neurophotonics, the tool has stereoscopic vision and fits within a small 4-mm-diameter tube.
It was not long before a space application for the technology was realized. The MARVEL innovation can be used to remotely sense and verify the rock and soil samples collected by robots from planetary bodies, before the samples are returned to Earth.
Photonics technologies not only make for a better world, they are literally out of this world!