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Facial recognition and fingerprint machines use technology that uses algorithms to accurately capture the details of individuals, which has been used for security systems, access control and identification verification applications.
It can be used to prevent fraud and unauthorized entry into secured areas.
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“Documentary films are exceptionally good at communicating new knowledge about the world, and since tech giants and algorithms are really defining our everyday lives, it is absolutely crucial that our festival deals with and questions these great scientific and technological advances.” - Tine Fischer, CPH:DOX Film Festival
Source: https://realscreen.com/2021/03/26/cphdox-21-unveils-science-program-of-docs-and-debates/
“Any sufficiently advanced technology is indistinguishable from magic.” - Arthur C. Clark
Illustration by Frank Kelly Freas
Criminals attempting to conceal the levels of technological sophistication in this society in order to be able to lure other criminals into contacting it or even attempting to attack it.
Top gusion 🇮🇩
Kisah kedua Hero ini sedang melakukan pertempuran yang sengit dan pada akhirnya mereka berdua saling berpisah satu sama lain. lain hal nya dengan mengakhiri hidupnya dan selama di pertandingan tsb.gusion rela akan pergi untuk selamanya dari Layla .. ending yang sangat mengharukan 🇮🇩
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The Synergy of Medical Transcription and 3D Virtual Events
In the changing world of healthcare and technology the combination of transcription and 3D virtual events is opening up new possibilities for revolutionizing how medical information is communicated and taught. As the healthcare industry embraces advancements the powerful combination of medical transcription services and immersive virtual experiences is becoming more evident. This article delves into the convergence of these two fields providing insights, into the advantages and transformative effects they can have on healthcare professionals and the wider healthcare system.
The history of medical transcription, in Singapore is deeply connected to the necessity, for well structured documentation of patient interactions. In the past healthcare providers heavily relied on transcription services to convert spoken words into written records. However the advancement of technology has ushered transcription into a phase by introducing voice recognition software and artificial intelligence (AI) algorithms that automate and improve the transcription process.
The Rise of 3D Virtual Events:
At the time there has been a transformation, in the realm of virtual events thanks to the emergence of 3D technology. While we are accustomed to webinars and video conferences 3D virtual events have revolutionized engagement by creating interactive settings. These events leverage technology to replicate real life situations offering participants a dynamic experience.
Various sectors within the healthcare industry from conferences to training sessions have enthusiastically embraced virtual events as a means of promoting collaboration, enriching learning opportunities and connecting professionals across the globe. These virtual environments seamlessly incorporate multimedia elements like 3D models, animations and simulations into their platforms delivering captivating experiences, for education and communication purposes.
The Synergy Unveiled:
The marriage of medical transcription and 3D virtual event platform in Malaysia holds immense promise for healthcare professionals and organizations. One of the key advantages is the seamless integration of accurate medical documentation into the virtual realm. As medical professionals engage in virtual conferences, training sessions, or collaborative research endeavors, having real-time, accurate transcriptions enhances communication and ensures that critical information is captured and retained.
Moreover, the integration of medical transcription services with 3D virtual events addresses language barriers, facilitating global collaboration among healthcare professionals. Accurate transcriptions enable participants to follow discussions, regardless of their native language, fostering a more inclusive and diverse healthcare community.
In the realm of medical education, 3D virtual events powered by precise transcriptions enable realistic simulations and case studies. Medical students and practitioners can immerse themselves in lifelike scenarios, enhancing their diagnostic and decision-making skills. This interactive learning experience goes beyond traditional methods, offering a more engaging and effective way to train the next generation of healthcare professionals.
The Impact on Patient Care:
The benefits of combining medical transcription and 3D virtual events extend beyond professional development to directly impact patient care. Accurate and comprehensive documentation is paramount in healthcare, influencing diagnosis, treatment plans, and overall patient outcomes. By seamlessly integrating transcriptions into virtual events, healthcare providers can ensure that critical information is communicated effectively and that collaborative efforts result in optimal patient care.
Furthermore, the immersive nature of 3D virtual events allows healthcare professionals to stay updated on the latest medical advancements and breakthroughs. Whether attending virtual conferences, participating in live surgeries through virtual reality, or engaging in interactive case discussions, medical practitioners can continuously enhance their knowledge and skills, ultimately benefiting the patients they serve.
Challenges and Future Directions:
While the synergy between medical transcription and 3D virtual events presents exciting possibilities, it is not without challenges. Privacy and security concerns related to the transcription of sensitive patient information in virtual spaces must be addressed through robust encryption and compliance measures.
Looking ahead, the integration of AI-driven transcription services with evolving 3D technologies is likely to become more sophisticated. This may involve the development of intelligent virtual assistants capable of summarizing complex medical discussions in real-time or generating interactive transcripts that allow users to navigate discussions effortlessly.
Conclusion:
The intersection of medical transcription and 3D virtual events represents a transformative force in the healthcare landscape. As technology continues to advance, the seamless integration of accurate transcriptions into immersive virtual environments holds the potential to revolutionize medical communication, education, and ultimately, patient care. By embracing this synergy, healthcare professionals can navigate the future with enhanced collaboration, knowledge-sharing, and a commitment to advancing the quality of healthcare on a global scale.
Roman’s Heat-Vision Eyes Are Complete!
Our Nancy Grace Roman Space Telescope team recently flight-certified all 24 of the detectors the mission needs. When Roman launches in the mid-2020s, the detectors will convert starlight into electrical signals, which will then be decoded into 300-megapixel images of huge patches of the sky. These images will help astronomers explore all kinds of things, from rogue planets and black holes to dark matter and dark energy.
Eighteen of the detectors will be used in Roman’s camera, while another six will be reserved as backups. Each detector has 16 million tiny pixels, so Roman’s images will be super sharp, like Hubble’s.
The image above shows one of Roman’s detectors compared to an entire cell phone camera, which looks tiny by comparison. The best modern cell phone cameras can provide around 12-megapixel images. Since Roman will have 18 detectors that have 16 million pixels each, the mission will capture 300-megapixel panoramas of space.
The combination of such crisp resolution and Roman’s huge view has never been possible on a space-based telescope before and will make the Nancy Grace Roman Space Telescope a powerful tool in the future.
Learn more about the Roman Space Telescope!
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5 Out of this World Experiments Awaiting Crew-1 Space Scientists
NASA astronauts Shannon Walker, Victor Glover, and Mike Hopkins, and JAXA (Japan Aerospace Exploration Agency) astronaut Soichi Noguchi embark on a historic mission on November 14, 2020 aboard the Crew Dragon. NASA’s Crew-1 mission marks the first certified crew rotation flight to the International Space Station. During their 6-month stay on orbit, these crew members will don their science caps and complete experiments in microgravity. Check out five out of this world experiments you can expect to see these space scientists working on during Expedition 64.
1. Space Gardening
The Crew-1 astronauts will become space farmers with the responsibility of tending to the rad(ish) garden located in a facility known as the Advanced Plant Habitat (APH). Researchers are investigating radishes in the Plant Habitat-02 experiment as a candidate crop for spaceflight applications to supplement food sources for astronauts. Radishes have the benefits of high nutritional content and quick growth rates, making these veggies an intriguing option for future space farmers on longer missions to the Moon or Mars.
2. Micro Miners
Microbes can seemingly do it all, including digging up the dirt (so to speak). The BioAsteroid investigation looks at the ability of bacteria to break down rock. Future space explorers could use this process for extracting elements from planetary surfaces and refining regolith, the type of soil found on the moon, into usable compounds. To sum it up, these microbial miners rock.
3. Cooler Exploration Spacesuits
The iconic spacesuits used to walk on the moon and perform spacewalks on orbit are getting an upgrade. The next generation spacesuit, the Exploration Extravehicular Mobility Unit (xEMU), will be even cooler than before, both in looks and in terms of ability to regulate astronaut body temperature. The Spacesuit Evaporation Rejection Flight Experiment (SERFE) experiment is a technology demonstration being performed on station to look at the efficiency of multiple components in the xEMU responsible for thermal regulation, evaporation processes, and preventing corrosion of the spacesuits.
4. Chips in Space
Crew-1 can expect to get a delivery of many types of chips during their mission. We aren’t referring to the chips you would find in your pantry. Rather, Tissue Chips in Space is an initiative sponsored by the National Institutes of Health to study 3D organ-like constructs on a small, compact devices in microgravity. Organ on a chip technology allows for the study of disease processes and potential therapeutics in a rapid manner. During Expedition 64, investigations utilizing organ on a chip technology will include studies on muscle loss, lung function, and the blood brain barrier – all on devices the size of a USB flashdrive.
5. The Rhythm of Life
Circadian rhythm, otherwise known as our “internal clock,” dictates our sleep-wake cycles and influences cognition. Fruit flies are hitching a ride to the space station as the subjects of the Genes in Space-7 experiment, created by a team of high school students. These flies, more formally known as the Drosophila melanogaster, are a model organism, meaning that they are common subjects of scientific study. Understanding changes in the genetic material that influences circadian rhythm in microgravity can shed light on processes relevant to an astronaut’s brain function.
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For updates on other platforms, follow @ISS_Research, Space Station Research and Technology News, or our Facebook to keep up with the science happening aboard your orbiting laboratory, and step outside to see the space station passing over your town using Spot the Station.
Tomorrow’s Technology on the Space Station Today
Tablets, smart appliances, and other technologies that are an indispensable part of daily life are no longer state-of-the-art compared to the research and technology development going on over our heads. As we celebrate 20 years of humans continuously living and working in space aboard the International Space Station, we’re recapping some of the out-of-this-world tech development and research being done on the orbiting lab too.
Our Space Technology Mission Directorate (STMD) helps redefine state-of-the-art tech for living and working in space. Here are 10 technologies tried and tested on the space station with helping hands from its astronaut occupants over the years.
1. Astronaut Wanna-Bees
Astronauts on the space station are responsible for everything from conducting science experiments and deploying satellites to tracking inventory and cleaning. While all are necessary, the crew can delegate some jobs to the newest robotic inhabitants – Astrobees.
These cube-shaped robots can work independently or in tandem, carrying out research activities. Once they prove themselves, the bots will take on some of the more time-consuming tasks, such as monitoring the status of dozens of experiments. The three robots – named Bumble, Honey, and Queen – can operate autonomously following a programmed set of instructions or controlled remotely. Each uses cameras for navigation, fans for propulsion, and a rechargeable battery for power. The robots also have a perching arm that lets them grip handrails or hold items. These free-flying helpers take advantage of another STMD technology called Gecko Grippers that “stick” to any surface.
2. Getting a Grip in Microgravity
We wanted to develop tools for grabbing space junk, and something strong and super-sticky is necessary to collect the diverse material orbiting Earth. So, engineers studied the gecko lizard, perhaps the most efficient “grabber” on this planet. Millions of extremely fine hairs on the bottom of their feet make an incredible amount of contact with surfaces so the gecko can hold onto anything. That inspired our engineers to create a similar material.
Now the Gecko Gripper made by OnRobot is sold on the commercial market, supporting industrial activities such as materials handling and assembly. The NASA gecko adhesive gripper that’s being tested in microgravity on the Astrobee robots was fabricated on Earth. But other small plastic parts can now be manufactured in space.
3. Make It, or Don’t Take It
Frequent resupply trips from Earth to the Moon, Mars, and other solar system bodies are simply not realistic. In order to become truly Earth-independent and increase sustainability, we had to come up with ways to manufacture supplies on demand.
A demonstration of the first 3D printer in space was tested on the space station in 2014, proving it worked in microgravity. This paved the way for the first commercial 3D printer in space, which is operated by Made In Space. It has successfully produced more than 150 parts since its activation in 2016. Designs for tools, parts, and many other objects are transmitted to the station by the company, which also oversees the print jobs. Different kinds of plastic filaments use heat and pressure in a process that’s similar to the way a hot glue gun works. The molten material is precisely deposited using a back-and-forth motion until the part forms. The next logical step for efficient 3D printing was using recycled plastics to create needed objects.
4. The Nine Lives of Plastic
To help fragile technology survive launch and keep food safe for consumption, NASA employs a lot of single-use plastics. That material is a valuable resource, so we are developing a number of ways to repurpose it. The Refabricator, delivered to the station in 2018, is designed to reuse everything from plastic bags to packing foam. The waste plastic is super-heated and transformed into the feedstock for its built-in 3D printer. The filament can be used repeatedly: a 3D-printed wrench that’s no longer needed can be dropped into the machine and used to make any one of the pre-programmed objects, such as a spoon. The dorm-fridge-sized machine created by Tethers Unlimited Inc. successfully manufactured its first object, but the technology experienced some issues in the bonding process likely due to microgravity’s effect on the materials. Thus, the Refabricator continues to undergo additional testing to perfect its performance.
5. Speed Metal
An upcoming hardware test on the station will try out a new kind of 3D printer. The on-demand digital manufacturing technology is capable of using different kinds of materials, including plastic and metals, to create new parts. We commissioned TechShot Inc. to build the hardware to fabricate objects made from aerospace-grade metals and electronics. On Earth, FabLab has already demonstrated its ability to manufacture strong, complex metal tools and other items. The unit includes a metal additive manufacturing process, furnace, and endmill for post-processing. It also has built-in monitoring for in-process inspection. When the FabLab is installed on the space station, it will be remotely operated by controllers on Earth. Right now, another printer created by the same company is doing a different kind of 3D printing on station.
6. A Doctor’s BFF
Today scientists are also learning to 3D print living tissues. However, the force of gravity on this planet makes it hard to print cells that maintain their shape. So on Earth, scientists use scaffolding to help keep the printed structures from collapsing.
The 3D BioFabrication Facility (BFF) created by TechShot Inc. could provide researchers a gamechanger that sidesteps the need to use scaffolds by bioprinting in microgravity. This first American bioprinter in space uses bio-inks that contain adult human cells along with a cell-culturing system to strengthen the tissue over time. Eventually, that means that these manufactured tissues will keep their shape once returned to Earth’s gravity! While the road to bioprinting human organs is likely still many years away, these efforts on the space station may move us closer to that much-needed capability for the more than 100,000 people on the wait list for organ transplant.
7. Growing Vitamins
Conditions in space are hard on the human body, and they also can be punishing on food. Regular deliveries of food to the space station refresh the supply of nutritious meals for astronauts. But prepackaged food stored on the Moon or sent to Mars in advance of astronauts could lose some nutritional value over time.
That’s why the BioNutrients experiment is underway. Two different strains of baker’s yeast which are engineered to produce essential nutrients on demand are being checked for shelf life in orbit. Samples of the yeast are being stored at room temperature aboard the space station and then are activated at different intervals, frozen, and returned to Earth for evaluation. These tests will allow scientists to check how long their specially-engineered microbes can be stored on the shelf, while still supplying fresh nutrients that humans need to stay healthy in space. Such microbes must be able to be stored for months, even years, to support the longer durations of exploration missions. If successful, these space-adapted organisms could also be engineered for the potential production of medicines. Similar organisms used in this system could provide fresh foods like yogurt or kefir on demand. Although designed for space, this system also could help provide nutrition for people in remote areas of our planet.
8. Rough and Ready
Everything from paints and container seals to switches and thermal protection systems must withstand the punishing environment of space. Atomic oxygen, charged-particle radiation, collisions with meteoroids and space debris, and temperature extremes (all combined with the vacuum) are just some conditions that are only found in space. Not all of these can be replicated on Earth. In 2001, we addressed this testing problem with the Materials International Space Station Experiment (MISSE). Technologists can send small samples of just about any technology or material into low-Earth orbit for six months or more. Mounted to the exterior of the space station, MISSE has tested more than 4,000 materials. More sophisticated hardware developed over time now supports automatic monitoring that sends photos and data back to researchers on Earth. Renamed the MISSE Flight Facility, this permanent external platform is now owned and operated by the small business, Alpha Space Test & Research Alliance LLC. The woman-owned company is developing two similar platforms for testing materials and technologies on the lunar surface.
9. Parachuting to Earth
Small satellites could provide a cheaper, faster way to deliver small payloads to Earth from the space station. To do just that, the Technology Education Satellite, or TechEdSat, develops the essential technologies with a series of CubeSats built by college students in partnership with NASA. In 2017, TechEdSat-6 deployed from the station, equipped with a custom-built parachute called exo-brake to see if a controlled de-orbit was possible. After popping out of the back of the CubeSat, struts and flexible cords warped the parachute like a wing to control the direction in which it travelled. The exo-brake uses atmospheric drag to steer a small satellite toward a designated landing site. The most recent mission in the series, TechEdSat-10, was deployed from the station in July with an improved version of an exo-brake. The CubeSat is actively being navigated to the target entry point in the vicinity of the NASA’s Wallops Flight Facility on Wallops Island, Virginia.
10. X-ray Vision for a Galactic Position System
Independent navigation for spacecraft in deep space is challenging because objects move rapidly and the distances between are measured in millions of miles, not the mere thousands of miles we’re used to on Earth. From a mission perched on the outside of the station, we were able to prove that X-rays from pulsars could be helpful. A number of spinning neutron stars consistently emit pulsating beams of X-rays, like the rotating beacon of a lighthouse. Because the rapid pulsations of light are extremely regular, they can provide the precise timing required to measure distances.
The Station Explorer for X-Ray Timing and Navigation (SEXTANT) demonstration conducted on the space station in 2017 successfully measured pulsar data and used navigation algorithms to locate the station as it moved in its orbit. The washing machine-sized hardware, which also produced new neutron star science via the Neutron star Interior Composition Explorer (NICER), can now be miniaturized to develop detectors and other hardware to make pulsar-based navigation available for use on future spacecraft.
As NASA continues to identify challenges and problems for upcoming deep space missions such as Artemis, human on Mars, and exploring distant moons such as Titan, STMD will continue to further technology development on the space station and Earth.
Make sure to follow us on Tumblr for your regular dose of space: http://nasa.tumblr.com
Are You Up to the Task of Navigating Space with NASA?
We’re committed to exploration and discovery, journeying to the Moon, Mars, and beyond. But how do we guide our missions on their voyage among the stars? Navigation engineers lead the way!
Using complex mathematical formulas, navigation experts calculate where our spacecraft are and where they’re headed. No matter the destination, navigating the stars is a complicated challenge that faces all our missions. But, we think you’re up to the task!
Our space navigation workbook lets you explore the techniques and mathematical concepts used by navigation engineers. The book delves into groundbreaking navigation innovations like miniaturized atomic clocks, autonomous navigation technologies, using GPS signals at the Moon, and guiding missions through the solar system with X-ray emissions from pulsars — a type of neutron star. It also introduces you to experts working with NASA’s Space Communications and Navigation program at Goddard Space Flight Center in Greenbelt, Maryland.
If you’re a high schooler who dreams of guiding a rover across the rocky surface of Mars or planning the trajectory of an observer swinging around Venus en route to the Sun, this workbook is for you! Download it today and start your adventure with NASA: https://go.nasa.gov/3i7Pzqr
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Space Shuttle Multi-function Electronic Display System
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Flight Director/Attitude Indicator
The Flight Director/Attitude Indicator (FD/AI) is one of the most important instruments in the Apollo program.
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Vostok 1 Globus IMP Navigation Instrument
This Globus IMP instrument was spacecraft navigation instruments used in Vostok 1.
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The First Man in Space
On April 12, 1961, aboard the spacecraft Vostok 1, Soviet cosmonaut Yuri Gagarin becomes the first human to travel into space.
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Instrument Panel on Vostok 1
The instrument panel of the Vostok 3KA-3 (Vostok 1), journey into space with the cosmonaut Yuri Gagarin.
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Mars Perseverance Rover Mission Landing Site
The Jezero crater (circle) on Mars was where the Mars Perseverance rover landed.
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Mars Perseverance Rover Head Section
The Mars Perseverance rover with its several cameras: SuperCam (Remote Micro-Imager), Mastcam-Z and Navcam.
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