Impact Lab – Page 233 – A Laboratory of the Future Human Experience

How these new electric aircraft could disrupt the $49 billion helicopter industry

February 2, 2023

Why United Airlines-backed Archer Aviation thinks eVTOLs could replace helicopters

Vertical lift aircraft have existed for more than a century in the form of helicopters. But the $49 billion industry faces a rapidly emerging threat.

An estimated 200 companies are working to build electric vertical takeoff and landing vehicles (eVTOLs), a new type of small passenger aircraft designed for transportation within congested urban environments.

“Helicopters are very expensive to operate for a number of reasons, but the biggest reason is that they have multiple points of failure, which eVTOL aircraft won’t,” said Michael Leskinen, president of United Airlines Ventures, which has invested in startups in the space called Eve and Archer Aviation. “The electrification makes the aircraft safer. Safer aircraft also becomes less costly to maintain.”

Space

Asteroid-Mining Startup Plans First Private Mission to Deep Space

February 2, 2023

The OrbAstro ORB-50 satellite platform will host a variety of instruments needed to evaluate the target asteroid from a distance.

By George Dvorsky

SCHEDULED FOR LAUNCH IN OCTOBER, ASTROFORGE’S PROSPECTOR SPACECRAFT WILL SEEK TO INSPECT AN ASTEROID LOCATED 22 MILLION MILES FROM EARTH.

AstroForge has announced an ambitious commercial mission to observe a distant asteroid—an important step for the California startup as it strives to become the world’s first deep space mining company.

AstroForge seeks to capitalize on the rapidly evolving state of the spaceflight industry and become the first firm to mine for metals in deep space. The California startup raised $13 million in seed funding last year—its first year of existence—and has now formally announced two mining-related missions that are scheduled to launch within the calendar year. The company is partnering with several others to make it happen, including OrbAstro, Dawn Aerospace, and Intuitive Machines.

Space is the place, as Sun Ra famously said, and it most certainly has plenty to offer, including rare-earth metals like platinum, gold, iridium, palladium, and osmium, among other minerals. Materials on a single asteroid could fetch trillions of dollars, making asteroid mining a tantalizing prospect. This idea has been around for decades, but the excessive costs associated with the endeavor have largely made it impossible. That’s changing, however, as it’s never been more affordable to launch rockets and manufacture satellites and spacecraft.

3D Printer

Drone Fleet Uses 3D Printing to Build Large-Scale Structures

February 2, 2023

Researchers at Imperial College in London have developed a 3D-printing system that uses multiple drones to build vertical structures while in flight.

By Mark Crawford

Robotic additive manufacturing methods are being retooled for use in the construction industry. There are currently two ways to use 3D printing in construction: 3D-printing structural components off site, then transporting those pieces on site for assembly, or using ground-based 3D printers to produce structures on site. But ground-based printers are limited in the size of the structures they can print.

Researchers from Imperial College London and the Swiss Federal Laboratories of Materials Science and Technology have developed a system that eliminates this scalability issue by using fleets of drones equipped with 3D-printing systems. Large and complex structures could potentially be entirely built with multiple drone-based printing systems that operate from the construction site.

The research team, led by Mirko Kovac, a professor aerial robotics at Imperial College, calls the new process “Aerial Additive Manufacturing” (Aerial-AM), in which a fleet of drones collaborate in flight to create large, intricate structures. A multi-drone approach allows for autonomous 3D printing under human supervision and real-time assessment of printed geometry as construction progresses. Drones can also monitor and adjust their building capabilities on the fly in real time.

NASA

NASA validates revolutionary propulsion design for deep space missions

February 2, 2023

As NASA takes its first steps toward establishing a long-term presence on the Moon’s surface, a team of propulsion development engineers at NASA have developed and tested NASA’s first full-scale rotating detonation rocket engine, or RDRE, an advanced rocket engine design that could significantly change how future propulsion systems are built.

The RDRE differs from a traditional rocket engine by generating thrust using a supersonic combustion phenomenon known as a detonation. This design produces more power while using less fuel than today’s propulsion systems and has the potential to power both human landers and interplanetary vehicles to deep space destinations, such as the Moon and Mars.

Engineers at NASA’s Marshall Space Flight Center in Huntsville, Alabama, and primary collaborator IN Space LLC, located in West Lafayette, Indiana, are confirming data from RDRE hot fire tests conducted in 2022 at Marshall’s East Test Area. The engine was fired over a dozen times, totaling nearly 10 minutes in duration.

Stem cells

Nanofiber-hydrogel loaded with stem cells shows success treating severe complication of Crohn’s disease

February 2, 2023

Utilization of the injectable nanofiber-hydrogel composite loaded with stem cells to treat perianal fistulas.

by Johns Hopkins

In a new study using a rat model of Crohn’s disease, a biodegradable hydrogel composite loaded with stem cells, developed by Johns Hopkins Medicine researchers, in a collaborative effort with the Whiting School of Engineering, has shown significant success in treating perianal fistulas (PAF)—one of the many complications of Crohn’s disease.

Crohn’s disease, a subtype of inflammatory bowel disease, is a disorder estimated by the U.S. Centers for Disease Control and Prevention to afflict more than three million adult Americans. About 30 percent to40 percent of patients with Crohn’s disease develop perianal fistulas—an inflamed tunnel between the skin and the inside of the anus. Fistulas can lead to pain, swelling, discomfort and leakage of blood or pus. Surgery is usually needed to treat the condition. However, more than half of patients do not benefit from current available treatments.

The injectable, biodegradable, mechanically fragmented nanofiber-hydrogel composite (mfNHC), loaded with stem cells that the Johns Hopkins team designed, can be injected inside the fistula tract, and showed a higher degree of healing, reducing the size of fistulas six-fold, in comparison to surgery.

Electric Automobile

This solar-powered car promises free driving

February 2, 2023

BY DAVID MCCOWEN

It sounds too good to be true. A car that can drive for free, powered by the sun.

But that’s what Aptera Motors promises, thanks to an enormous array of solar cells embedded within the carbon fibre body of its Launch Edition electric car.

The brand unveiled the production version of its breakthrough machine in January, pitching it to investors as a car that could change the way people drive.

More than 700 watts of solar cells energise a floor-mounted battery that promises to deliver more than 600 kilometres of range.

Solar panels draw in about 60 kilometres of range per day that can be stored in the battery, or augmented by public fast chargers on road trips.

Space Flight

A Novel Propulsion System Would Hurl Hypervelocity Pellets at a Spacecraft to Speed it up

February 1, 2023

Graphic depiction of Pellet-Beam Propulsion for Breakthrough Space Exploration.

Today, multiple space agencies are investigating cutting-edge propulsion ideas that will allow for rapid transits to other bodies in the Solar System. These include NASA’s Nuclear-Thermal or Nuclear-Electric Propulsion (NTP/NEP) concepts that could enable transit times to Mars in 100 days (or even 45) and a nuclear-powered Chinese spacecraft that could explore Neptune and its largest moon, Triton. While these and other ideas could allow for interplanetary exploration, getting beyond the Solar System presents some major challenges.

As we explored in a previous article, it would take spacecraft using conventional propulsion anywhere from 19,000 to 81,000 years to reach even the nearest star, Proxima Centauri (4.25 light-years from Earth). To this end, engineers have been researching proposals for uncrewed spacecraft that rely on beams of directed energy (lasers) to accelerate light sails to a fraction of the speed of light. A new idea proposed by researchers from UCLA envisions a twist on the beam-sail idea: a pellet-beam concept that could accelerate a 1-ton spacecraft to the edge of the Solar System in less than 20 years.

The concept, titled “Pellet-Beam Propulsion for Breakthrough Space Exploration,” was proposed by Artur Davoyan, an Assistant Professor of Mechanical and Aerospace Engineering at the University of California, Los Angeles (UCLA). The proposal was one of fourteen proposals chosen by the NASA Innovative Advanced Concepts (NIAC) program as part of their 2023 selections, which awarded a total of $175,000 in grants to develop the technologies further. Davoyan’s proposal builds on recent work with directed-energy propulsion (DEP) and light sail technology to realize a Solar Gravitational Lens.

brain-computer interfaces

SCIENTISTS SAY NEW BRAIN-COMPUTER INTERFACE LETS USERS TRANSMIT 62 WORDS PER MINUTE

February 1, 2023

A HUGE BANDWIDTH INCREASE.

BY VICTOR TANGERMANN

A team of Stanford scientists claims to have tested a new brain-computer interface (BCI) that can decode speech at up to 62 words per minute, improving the previous record by 3.4 times.

That’d be a massive step towards real-time speech conversion at the pace of natural human conversation.

Max Hodak, who founded BCI company Neuralink alongside Elon Musk, but wasn’t involved in the study, called the research “a meaningful step change in the utility of implanted BCIs” in an email to Futurism.

As detailed in a yet-to-be-peer-reviewed paper, the team of Stanford scientists found that they only needed to analyze brain activity in a relatively small region of the cortex to convert them into coherent speech using a machine learning algorithm.

The goal was to give those who can no longer speak due to ALS or stroke their voice back. While keyboard-based solutions have allowed those with paralysis to communicate again to a certain degree, a brain-based speech interface could speed up the decoding significantly.

“Here, we demonstrated a speech BCI that can decode unconstrained sentences from a large vocabulary at a speed of 62 words per minute, the first time that a BCI has far exceeded the communication rates that alternative technologies can provide for people with paralysis, e.g. eye tracking,” the researchers write.

Space Flight

Rocket Lab’s Electron Booster Makes Its First US Liftoff And You Can Watch Live Here

January 31, 2023

Rocket Lab is scheduled to launch its Virginia Is For Launches mission later this evening. It will be the company’s first launch from Launch Complex 2 at Virginia Space’s Mid-Atlantic Regional Spaceport within NASA’s Wallops Flight Facility.

by Tim Sweezy

While this will not be the first launch of Rocket Lab’s Electron booster, it will be the first time it will launch in the United States. Previously, the company launched 32 Electron missions from Launch Complex 1 in New Zealand. The company touts the fact that Electron is “the most frequently launched small orbital rocket globally, and now with two launch complexes combined, Rocket Lab can support more than 130 launch opportunities every year.”

Launch Complex 2 was designed to support up to 12 missions per year. Rocket Lab operates an Integration and Control Facility within NASA’s Wallops Research Park, which includes state-of-the-art payload integration cleanrooms, vehicle processing facilities, and a mission control center. The upcoming launch pad and production complex for the company’s large reusable Neutron launch vehicle will also be located at the Mid-Atlantic Regional Spaceport.

The rocket will reach supersonic speed within a minute of launch, with its main engine cutting off on the first stage around the two-and-a-half-minute mark. A few seconds later Stage 1 will separate from Stage 2, with Electron’s Stage 2 Rutherford engines igniting shortly after. The fairing will separate approximately three minutes post-launch, with the payload being deployed near the one-hour mark.

Nanotechnology

New Nanoparticle To Act at the Heart of Cells for Extremely Powerful and Targeted Anti-Inflammatory Treatment

January 31, 2023

This electron micrograph documents the porous nature of the silica nanoparticles. These pores are large enough to allow entrance of a large number of NSA molecules. Here, they are protected until being taken up by the immune cells. At this point NSA is released and can stop the inflammatory processes.

A team from UNIGE and LMU developed a transport nanoparticle to make an anti-inflammatory drug much more effective and less toxic.

How can a drug be delivered exactly where it is needed, while limiting the risk of side effects? The use of nanoparticles to encapsulate a drug to protect it and the body until it reaches its point of action is being increasingly studied. However, this requires identifying the right nanoparticle for each drug according to a series of precise parameters. A team from the University of Geneva (UNIGE) and the Ludwig Maximilians Universität München (LMU) has succeeded in developing a fully biodegradable nanoparticle capable of delivering a new anti-inflammatory drug directly into macrophages – the cells where uncontrolled inflammatory reactions are triggered – ensuring its effectiveness. In addition, the scientists used an in vitro screening methodology, thus limiting the need for animal testing. These results, recently published in the Journal of Controlled Release, open the way to an extremely powerful and targeted anti-inflammatory treatment.

Inflammation is an essential physiological response of the body to defend itself against pathogens such as bacteria. It can however become problematic when it turns into a chronic condition, such as in cancers, autoimmune diseases or certain viral infections. Many treatments already exist, but their action is often not very targeted, high doses are required and deleterious side effects are frequent. Macrophages, large immune cells whose natural function is to absorbs pathogens and trigger inflammation to destroy them, are often involved in inflammatory diseases. When overactivated, they trigger an excessive inflammatory response that turns against the body instead of protecting it.

Science & Technology News

Fighting Bacteria with Bacteria: “Living Medicine” Treats Lung Infections

January 31, 2023

This shows a cross-section of a mouse lung infected with Pseudonomas aeruginosa. The mouse was treated with a version of Mycoplasma pneumoniae that is able to produce therapeutic molecules such as pyocins specifically-designed to combat P. aeruginosa. This therapeutic version of M. pneumoniae acts like a ‘living medicine’ reducing the effects of the infection and preserving air in the alveoli. [Rocco Mazzolini/CR

Some researchers are thinking outside the box to try to combat the growing antibiotic resistance crisis. One of the innovations has been the development of “living medicines” which use one living bacterium to kill another. In a new study, researchers developed a modified (non-pathogenic) version of Mycoplasma pneumoniae that attacks Pseudomonas aeruginosa—which is resistant to many types of antibiotics and is a common source of infections in hospitals. The modified M. pneumoniae was used in combination with low doses of antibiotics that would otherwise not work on their own.

The M. pneumoniae treatment significantly reduced lung infections in mice and doubled mouse survival rate compared to no treatment. Administering a single, high dose of the treatment showed no signs of toxicity in the lungs. And, once the treatment had finished its course, the immune system cleared the modified bacteria in a period of four days.

This research is published in Nature Biotechnology in the paper, “Engineered live bacteria suppress Pseudomonas aeruginosa infection in mouse lung and dissolve endotracheal-tube biofilms.”

P. aeruginosa infections are difficult to treat, in part, because the bacteria forms biofilms which have an increased resistance to antibiotics.

One particularly challenging infection occurs when biofilms grow on the surface of endotracheal tubes used by critically-ill patients who require mechanical ventilators to breathe. This causes ventilator-associated pneumonia (VAP), a condition that affects one in four (9–27%) patients who require intubation. The incidence exceeds 50% for patients intubated because of severe COVID-19. VAP can extend the duration in the intensive care unit for up to thirteen days and kills up to one in eight patients (9–13%).

new technology

This Startup Is Using AI to Unearth New Smells

January 30, 2023

Google Research spinout Osmo wants to find substitutes for hard-to-source aromas. The tech could inspire new perfumes—and help combat mosquito-borne diseases.

By EMILY MULLIN

ALEX WILTSCHKO OPENS a black plastic suitcase and pulls out about 60 glass vials. Each contains a different scent. One smells starchy with soft floral notes, like jasmine rice cooking. Another brings to mind ocean air and the white rind of a watermelon. One is like saffron with hints of leather and black tea. The next is the pungent aroma of fig leaves, boxwood, and basil. The most surprising one has the tang of a Thai chili pepper without the nostril-burning heat.

The molecules wafting into my nose are nothing like I’ve ever smelled before. In fact, I’m one of only a handful of people who have ever smelled them. And yet, before any person had sniffed them, a computer model predicted how they’d smell to us.

Wiltschko has been obsessed with scents since he was a teenager, and for the past several years he has been developing software at Google Research to predict the scent of molecules based on their structure alone. The vials he’s invited me to smell are the basis of his new startup, Osmo, a spinout of Google Research based in Cambridge, Massachusetts. With $60 million in an initial funding round led by New York-based Lux Capital and GV (Google Ventures), Osmo aims to create the next generation of aroma molecules for perfumes, shampoos, lotions, candles, and other everyday products.

The $30 billion global fragrance industry relies on raw ingredients that are becoming increasingly difficult or controversial to source. Supplies of flowers popular in perfumery are dwindling because of extreme weather driven by climate change. Species like sandalwood trees are endangered from overharvesting. Other ingredients, like saffron or vetiver, are vulnerable to supply chain disruptions due to geopolitical turmoil. Some brands still use musk and other odors sourced from animals, which presents ethical issues, since it means they must be captured or killed. Meanwhile, some synthetic alternatives, such as lilial, which smells like lily of the valley, are facing regulatory bans for safety reasons.