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US Space Program - a thread

New Mission Studying Neutron Stars On Track for Launch

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A view of the Neutron star Interior Composition Explorer (NICER) X-ray Timing Instrument without its protective blanketing shows a collection of 56 close-packed sunshades—the white and black cylinders in the foreground—that protect the X-ray optics, as well as some of the 56 X-ray detector enclosures, on the gold-colored plate, onto which X-rays from the sky are focused.

NICER, an upcoming NASA astrophysics mission, will uncover the physics governing the ultra-dense interiors of neutron stars. Using the same platform, the mission will demonstrate trailblazing space navigation technology.

The NICER mission arrived at NASA’s Kennedy Space Center in Cape Canaveral, Florida, on June 8, 2016. Currently scheduled for launch to the International Space Station in February 2017 aboard a SpaceX Dragon cargo spacecraft, NICER will deploy as an external attached payload on the ISS ExPRESS Logistics Carrier 2. Its 56 X-ray optics and silicon detectors will observe and gather data about the interior composition of neutron stars and their pulsating cohort, pulsars.

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Elon Musk Just Had a Hush-Hush Meeting at the Pentagon

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Elon Musk, the billionaire businessman who wants to literally die on Mars after he puts an electric car in every American’s garage, just had a meeting at the Pentagon with the US Secretary of Defense. But neither Musk nor Secretary Ash Carter will disclose what they talked about.

“Elon Musk is one of the most innovative minds in this country and the secretary, as you know, has been reaching out to a number of members of the technology community to get their ideas, their feedback, find out what’s going on in the world of innovation,” Peter Cook, the Pentagon’s press secretary, said on Monday.

Today’s meeting was focused on “innovation” according to a Defense Department spokesperson who spoke to CNN, but no further details were given. Musk has a financial interest in solar power and electric cars, but if I had to take a wild guess, Carter and Musk probably talked a fair bit about SpaceX, the entrepreneur’s private space company. SpaceX already has an $82 million contract with the US Air Force.

The Pentagon has been actively courting private business in Silicon Valley over the past year to establish more ties with the defense industry, even opening up an office on the West Coast under the Defense Innovation Unit Experimental (DIUx) program. But the initiative has been off to a stumbling start. They’re already trying to overhaul the office in an attempt to cut through red tape and streamline contracts.

“We’re taking a page straight from the Silicon Valley playbook,” Carter said at Moffett Federal Airfield in Mountain View, according to a new report in Bloomberg. “We’re launching DIUx 2.0.”

In the past, Carter has talked about a “funding pipeline,” which is really nothing new when it comes to the business of technology transfer. But it’s clearly an area where the military is currently bogged down.

We often forget that Silicon Valley was built on the backs of US military budgets cranking out weapons of war and the microchips that would guide them to their destinations. But the military has arguably been worse at helping to fund dual use technology than it was during the 1990s, when we saw the US government help start the process to commercialize things like the internet and GPS.

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SpaceX Set to Reuse Rocket For the First Time

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Elon Musk is ready to prove that landing the rocket on a barge in April wasn’t just a fluke. Yesterday, the SpaceX co-founder tweeted that he hoped to relaunch its four landed rockets this fall for the first time.


The relaunch is a little behind schedule, since Musk said after the barge landing that he hoped that the rockets could fly again by June. Though a seven-month turnaround isn’t bad, the company eventually hopes that it can cut down the time to a matter of weeks.

Though this fall’s flight would be the first time one of SpaceX’s rockets is reused, Luxembourg-based satellite launcher SES has already expressed strong interest in championing the reusable rockets and bringing them to market. If the relaunch is successful and SpaceX continues to land even more rockets, Musk may need to get serious about needing more space for its rocket storage hangar.

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Landing on a barge is great and all, but this is the real measure of their worth:usflag:.
 
The Space Launch System is coming together, slowly, but surely.

A second booster test is scheduled for June 28th.
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Here's the first test of the SLS' boosters.

First the segments had to arrive, though.
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Then be assembled.
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The SLS's liquid Oxygen tank, which will feed the main engines, has had its final welding completed. It's 200 feet tall and 27.6 feet in diameter.
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Segments of the Launch Vehicle Stage Adapter, like this aft cone, are also nearing or have been completed.
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One unsung part of the SLS is its insulation foam. This protects the core stages during launch. Nearly 180 panels have been used for various testing.

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As noted above, a second test of the SLS boosters is scheduled for June 28th, but the SLS also has four RS-25 engines - the same used on the Space Shuttle - they too have been undergoing testing.
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NASA TV to Broadcast U.S. Cargo Ship Departure from Space Station

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The Orbital ATK Cygnus cargo ship is seen after final approach to the International Space Station. The vehicle was captured at 6:51 a.m. EDT March 26 using the space station's Canadarm2 robotic arm by Expedition 47 Commander Tim Kopra. The unmanned cargo craft was then bolted to the Earth-facing port on the Unity module at 10:52 a.m. Orbital ATK’s fifth cargo delivery flight under its Commercial Resupply Services contract delivered over 7,700 pounds of cargo and included equipment to support some 250 experiments during Expeditions 47 and 48.b
Credits: NASA


After delivering almost 7,500 pounds of cargo to support dozens of science experiments from around the world, the Orbital ATK Cygnus cargo spacecraft is set to leave the International Space Station Tuesday, June 14. NASA Television will provide live coverage of Cygnus' departure beginning at 9 a.m. EDT.

Ground controllers will detach the Cygnus spacecraft, which arrived at the station March 26, from the Earth-facing side of the station's Unity module using the Canadarm2 robotic arm. Robotics controllers will maneuver Cygnus into place and Expedition 47 robotic arm operators Tim Kopra of NASA and Tim Peake of ESA (European Space Agency) will give the command for its 9:30 a.m. release.

Five hours after departure, the Saffire-I experiment will take place onboard the uncrewed cargo craft. Saffire-I provides a new way to study a realistic fire on a spacecraft. This hasn’t been possible in the past because the risks for performing such studies on crewed spacecraft are too high. Instruments on the returning Cygnus will measure flame growth, oxygen use and more. Results could determine microgravity flammability limits for several spacecraft materials, help to validate NASA’s material selection criteria, and help scientists understand how microgravity and limited oxygen affect flame size. The investigation is crucial for the safety of current and future space missions.

Cygnus also will release five LEMUR CubeSats from an external deployer June 15, part of a remote sensing satellite constellation that provides global ship tracking and weather monitoring. The vehicle will remain in orbit until Wednesday, June 22, when its engines will fire twice, pushing it into Earth's atmosphere where it will burn up over the Pacific Ocean. NASA TV will not provide a live broadcast of the Cygnus deorbit burn and re-entry.

Experiments delivered on Cygnus supported NASA and other research investigations during Expeditions 47 and 48, including studies in biology, biotechnology, physical science and Earth science -- research that impacts life on Earth, and also will help us on the journey to Mars. Investigations studied realistic fire scenarios on a space vehicle, enabled the first space-based observations of meteors entering Earth’s atmosphere from space, explored how regolith behaves and moves in microgravity, tested a gecko-inspired adhesive gripping device that can stick on command in the harsh environment of space, and added a new 3-D printer in microgravity.

The Cygnus resupply craft launched March 22 on a United Launch Alliance Atlas V rocket from Cape Canaveral Air Force Station, Florida, for the company’s fifth NASA-contracted commercial resupply mission.
 
SLS Booster 'Chills Out' Ahead of Super-Hot Ground Test

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An Orbital ATK technician inspects hardware and instrumentation on a full-scale, test version booster for NASA's new rocket, the Space Launch System. The booster is being cooled to approximately 40 degrees Fahrenheit ahead of its second qualification ground test June 28 at Orbital ATK's test facilities in Promontory, Utah. Testing at the thermal extremes experienced by the booster on the launch pad is important to understanding the effects of temperature on the performance of how the propellant burns.
Credits: Orbital ATK


The Old Farmer's Almanac is predicting a hotter-than-normal summer for Utah, but at Orbital ATK's test facility in Promontory, crews are bundling up to chill down the booster for the world's most powerful rocket, NASA's Space Launch System.

The booster is being cooled to approximately 40 degrees Fahrenheit ahead of its second qualification ground test June 28. Testing at the thermal extremes experienced by the booster on the launch pad is important to understanding the effects of temperature on the performance of how the propellant burns. Data and analysis from past human-rated space programs have set the temperature limits for boosters between 40 and 90 degrees Fahrenheit. The booster was heated to 90 degrees Fahrenheit for the first successful booster qualification test in March 2015.

"In the winter or summer, you expect your car to start – regardless of what the temperature is outside," said Mat Bevill, deputy chief engineer in the SLS Boosters Office at NASA's Marshall Space Flight Center in Huntsville, Alabama, where the SLS program is managed for the agency. "That car had to be tested to ensure it performed as it was designed to do, even in wide temperature ranges. That's pretty much what we're doing -- except with a huge rocket booster."

The massive size of the booster means it will take more than a month to reach the cold temperature target for the booster inside the test stand. Three large air-conditioning units – similar to those used for outdoor ice skating rinks – have been placed around the test facility, and are continually pumping air at 25 degrees Fahrenheit into the test stand house surrounding the booster. Sensors inside and outside the booster measure the propellant temperature, and analytical models predict the time it takes for the booster to be conditioned to 40 degrees.

"Propellant temperature shouldn't be mistaken for the temperature of the booster when it's fired," Bevill added. "It may be conditioned to 40 degrees Fahrenheit, but once it fires, it is extremely hot – about 6,000 degrees Fahrenheit. That's hot enough to boil steel."

The day of the static fire, the test stand house will be rolled out of the way. "Cold conditioning in the summer isn't exactly optimal, but that's just one of the challenges with staying on schedule. We have to keep marching forward to be ready for flight," Bevill said. "But just like it takes a long time to cool the booster, it also takes a long time for it to warm back up. Testing early in the morning before it gets too hot helps, and we chill to a few degrees cooler than the target of 40 degrees to account for the summer heat on test day."

The two-minute, full-duration firing of the 177-foot booster will be the last full-scale test to support qualification of the hardware for the first two flights of SLS. Some 82 design objectives will be measured through more than 530 instrumentation channels on the booster. Along with measuring the ballistic performance at the lower end of the booster’s accepted propellant temperature range, the test also integrates SLS flight-like command and control for motor ignition and nozzle steering.

After this test, the next time a SLS booster will be fired up will be on the launch pad at NASA’s Kennedy Space Center in Florida. Two five-segment solid rocket boosters, along with four RS-25 engines, will propel SLS with the Orion spacecraft on its first mission in 2018.

"We’re working with Orbital ATK as they get ready to fire this booster in June," said Bruce Tiller, deputy manager of the SLS Boosters Office at Marshall. "In conjunction with testing, booster flight hardware is currently in production. NASA is preparing for the first flight of SLS, and each of these programmatic milestones provide crucial data to enable human missions to deep-space destinations, including Mars."

While the boosters for the space shuttle had four booster segments, the SLS boosters will have five segments. The added booster segment for SLS contains more solid propellant that allows SLS to lift more weight and reach a higher altitude before the boosters separate from the core stage within the first two minutes of flight. The core stage, towering more than 200 feet tall with a diameter of 27.6 feet, will store cryogenic liquid hydrogen and liquid oxygen that will feed the vehicle’s RS-25 engines.

The initial SLS configuration will have a minimum 70-metric-ton (77-ton) lift capability. The next planned upgrade of SLS will use a powerful exploration upper stage for more ambitious missions with a 105-metric-ton (115-ton) lift capacity. A later configuration will replace the five-segment solid rocket boosters with a pair of advanced solid or liquid propellant boosters to provide a 130-metric-ton (143-ton) lift capacity. In each configuration, SLS will continue to use the same core stage and four RS-25 engines.
 
http://www.floridatoday.com/story/t...x-targets-wednesday-falcon-9-launch/85709496/

SpaceX targets Wednesday [June 15th] Falcon 9 launch

A busy stretch on the Eastern Range continues with SpaceX’s planned Wednesday morning launch of a Falcon 9 carrying a pair of commercial communications satellites.

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There’s an 80 percent chance of favorable weather for the targeted 10:29 a.m. liftoff, at the opening of a 44-minute window at Cape Canaveral Air Force Station’s Launch Complex 40.

The mission is one of three in quick succession this month, along with two by United Launch Alliance.

ULA’s Delta IV Heavy rocket on Saturday blasted off with a U.S. intelligence satellite on the mission's second attempt in three days, while an Atlas V is being prepared for a June 24 liftoff with a Navy communications satellite.

SpaceX’s mission is the second of two for Paris-based Eutelsat and Bermuda-based ABS, following the first in March 2015. After liftoff, SpaceX will attempt to land the Falcon 9's first stage on a ship down range in the Atlantic Ocean, hoping to stick the landing on a fourth consecutive flight.

Falcon re-flight

SpaceX hopes to re-fly a rocket for the first time this fall.

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SpaceX's four recovered Falcon 9 rocket boosters in storage in a hangar at Kennedy Space Center's pad 39A. (Photo: Elon Musk via Twitter (@elonmusk))

“Aiming for first reflight in Sept/Oct,” CEO Elon Musk said last week on Twitter.

SpaceX has successfully recovered four boosters since December. The first will go on display at company headquarters in Hawthorne, California, and of the rest, the one landed on a ship in April is believed to be in the best condition so far.

Musk said immediately after that launch that he believed he could line up a customer for the launch, which he though was possible as soon as June.

The date has slipped a bit, and SpaceX hasn’t yet revealed what will fly on the used Falcon 9.

Making rockets reusable is key to SpaceX’s goal to lower launch costs and make human missions to Mars more feasible, possibly as soon as the mid-2020s.

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Did you see how during the ignition, the paint on the rocket and boosters got darkened.
This is an monster of a rocket.

Is the orange paint or insulation foam?

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The crazy thing is the Falcon Heavy is supposed to be even more powerful:o:!

And the SLS is will eclipse both:woot:.

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NASA Completes Test Version of SLS Launch Vehicle Stage Adapter

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A crane lifts the structural test article of the launch vehicle stage adapter (LVSA) after final manufacturing on a 30-foot welding tool at NASA’s Marshall Space Flight Center in Huntsville, Alabama. The LVSA will connect two major sections of the upper part of NASA's Space Launch System -- the core stage and the interim cryogenic propulsion stage (ICPS) -- for the first flight of the rocket and the Orion spacecraft. SLS will be the world's most powerful rocket and carry astronauts in NASA's Orion spacecraft on deep-space missions, including the journey to Mars.

Later this year at Marshall, the test version of the LVSA will be stacked with other structural test articles of the upper part of SLS. Engineers will examine test data and compare it to computer models to verify the integrity of the hardware and ensure it can withstand the forces it will experience during flight. The hardware's cone shape is due to the ICPS having a smaller diameter than the rocket's core stage. Teledyne Brown Engineering of Huntsville is the prime contractor for the LVSA.
 
http://www.extremetech.com/extreme/229937-nasa-testing-helicopter-drone-to-accompany-next-mars-rover

NASA testing helicopter drone to accompany next Mars rover

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NASA is still in the process of planning the 2020 Mars rover mission to follow up on the massive success of the Curiosity rover. While the design of the 2020 mission will be very similar to Curiosity, NASA is looking to improve the suite of instruments and it might even give the rover a little aerial companion in the form of a helicopter. Engineers at NASA JPL are still testing the Mars copter design to see if it will head to the Red Planet with the rover.

Flying lets you cover much more ground, but rovers have been our only way of getting around on Mars thus far. That’s partially because of the possibility of damage to a flying drone that you can’t repair or even flip over from millions of miles away. The main reason this hasn’t been attempted yet is that Mars has a very thin atmosphere. That’s the same reason Curiosity needed a crazy rocket sled to land — there’s not enough atmosphere for parachutes to do the job. A fixed-wing craft would be more power efficient, but it would have to be huge to get enough lift to fly. A helicopter, on the other hand, can have smaller propellers that it spins faster to generate sufficient lift.

The helicopter design isn’t a magic bullet, though. The Mars copter design being tested does still have very large rotor blades relative to its size. The heart of the robot is a 2.2 pound cube roughly the size of a tissue box. The blades are 3.6 feet from tip to tip. The solar powered robot is designed to fly for two or three minutes at a time and cover about a third of a mile (half a kilometer). It will be outfitted with wide-angle cameras like a GoPro, allowing NASA to find optimal routes for the rover to take across the Martian landscape. This could allow the rover to cover three times more territory each day and scope out the best places to do science.



Simply engineering a solar-powered helicopter is already challenging, but NASA also needs to design an automated system that can land the copter reliably. Due to the distance, there’s no way for the drone to be controlled by humans. It needs to be able to find a landing zone and set down without damaging itself.

There’s no guarantee this will work. The design needs to pass plenty of tests before it will be added to the mission. If it does, I bet it’ll have an awesome Twitter account, and the rover will have its own official photographer. It won’t be restricted to lonely selfies.
 
SpaceX Just Crashed a Rocket Right Into Its Drone Ship

Just as the Falcon 9 was touching down on the Of Course I Still Love Youdrone ship, SpaceX’s feed cut out, leaving both those watching at home and the company clueless as to whether or not the rocket had landed safely. The rocket was visible upright on the pad for a moment between the smoke clouds. But something happened (perhaps a tip-over, like we saw earlier this year, or it simply came in too hard or fast), and the rocket was destroyed, according to SpaceX.

Although this rocket didn’t stick its landing, both satellites attached to the rocket were successfully deployed into space. We’ll update you on just what happened, as we find out the details.

Update 10:15 am: It appears the problem with this landing stems from insufficient thrust from one of the rocket’s three engines. Elon Musk described the problem on Twitter as an “RUD=Rapid Unscheduled Disassembly”.

Engineers have apparently already begun working on a solution that would let the other engines compensate for such problems. Musk estimates that the fix should be ready before the end of the year.

Update 10:40 am: Although the rocket may not have emerged from today’s launch, the satellites both did quite nicely.

Musk also said that the footage of the crash, which he described as “maybe [the] hardest impact to date”, from the drone ship’s POV is on its way later today.

The drone ship, fortunately, emerged from its encounter unscathed.

Liftoff:


And, uh, landing:partay::


...

Meh, stuff happens. The most important question in events like this is always "Did your wreckage at least make it"

Let's consult the flow chart:

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Easy fix. Just add more boosters:lol:.
 
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Building the Future: Space Station Crew 3-D Prints First Student-Designed Tool in Space

When NASA fired up the Additive Manufacturing Facility on the International Space Station to begin more testing of the emerging 3-D printing technology in orbit, one college student in particular watched intently.

In autumn of 2014, a high school senior in Enterprise, Alabama, Robert Hillan entered the Future Engineers Space Tool design competition, which challenged students to create a device astronauts could use in space. The catch was that it must upload electronically and print on the new 3-D printer that was going to be installed on the orbiting laboratory.

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The Mulitpurpose Precision Maintenance Tool, created by University of Alabama in Huntsville student Robert Hillan as part of the Future Engineers Space Tool Challenge, was printed on the International Space Station. It is designed to provide astronauts with a single tool that can help with a variety of tasks, including tightening nuts or bolts of different sizes and stripping wires. Credits: NASA

In January 2015, NASA and the American Society of Mechanical Engineers Foundation announced that Hillan's design, a Multipurpose Precision Maintenance Tool, was selected out of hundreds of entries to be printed on the station.

"Our challenges invite students to invent objects for astronauts, which can be both inspiring and incredibly tough," said Deanne Bell, founder and director of the Future Engineers challenges. "Students must have the creativity to innovate for the unique environment of space, but also the practical, hands-on knowledge to make something functional and useful. It’s a delicate balance, but this combination of creativity, analytical skills, and fluency in current technology is at the heart of engineering education."

:o:Denmark? Norge? Borks in Spaaaaaaaace!!
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Robert Hillan, a sophomore engineering student at the University of Alabama in Huntsville, watches a 3-D printer on the International Space Station complete his winning design for the Future Engineers Space Tool Challenge. Part of his prize for winning the competition was going behind the scenes to watch the printing process from NASA's Payload Operations Integration Center -- mission control for space station science located at NASA's Marshall Space Flight Center in Huntsville. Credits: NASA

Hillan's design features multiple tools on one compact unit, including different sized wrenches, drives to attach sockets, a precision measuring tool for wire gauges, and a single-edged wire stripper. After the new manufacturing facility was installed on the station in March, NASA uploaded Hillan's design to be printed.

As a bonus, Hillan was invited to watch his tool come off the printer from a unique vantage point. On June 15, standing amidst the flight controllers in the Payload Operations Integration Center at NASA's Marshall Space Flight Center in Huntsville, Alabama, which is mission control for space station science, Hillan looked on as NASA astronaut Jeff Williams displayed the finished tool from the station's Additive Manufacturing Facility. The Marshall Center is located just a few miles from where Hillan is a sophomore engineering student at the University of Alabama in Huntsville.

"I am extremely grateful that I was given the opportunity to design something for fabrication on the space station," Hillan said. "I have always had a passion for space exploration, and space travel in general. I designed the tool to adapt to different situations, and as a result I hope to see variants of the tool being used in the future, hopefully when it can be created using stronger materials."

Not only did Hillan get to watch his tool being made, he also got to spend a few minutes chatting with astronauts on the station.

NASA astronaut Tim Kopra, a current station crew member, congratulated Hillan, saying "When you have a problem, it will drive specific requirements and solutions. 3-D printing allows you to do a quick design to meet those requirements. That's the beauty of this tool and this technology. You can produce something you hadn't anticipated and do it on short notice."

"You have a great future ahead of you."

The space station's 3-D printer caught national headlines late in 2014 when it started operations and built nearly two dozen sample designs that were returned to the Marshall Center for further testing. NASA is continuing 3-D printing development that will prove helpful on the journey to Mars with the newly installed Additive Manufacturing Facility.

"When a part breaks or a tool is misplaced, it is difficult and cost-prohibitive to send up a replacement part," said Niki Werkheiser, NASA's 3-D Printer program manager at Marshall. "With this technology, we can build what is needed on demand instead of waiting for resupply. We may even be able to build entire structures using materials we find on Mars."

Winning this competition made Hillan see the space industry in a different light, and it may have changed the direction of his future.

"When I won the competition, I started seeing problems I face as new opportunities to create and learn," Hillan said. "Since then I have tried to seize every opportunity that presents itself. I love finding solutions to problems, and I want to apply that mentality as I pursue my engineering degree and someday launch my own company."

NASA’s Advanced Exploration Systems Division, in partnership with the American Society of Mechanical Engineers Foundation, continues to provide an ongoing series of Future Engineers 3-D Space Design Challenges. Through these challenges, students become the creators and innovators of tomorrow by using 3-D modeling software to submit their designs of 3-D printable objects for an astronaut to theoretically use in space. See Future Engineers for results and the latest information about the series.


 
SpaceX Just Crashed a Rocket Right Into Its Drone Ship

Just as the Falcon 9 was touching down on the Of Course I Still Love Youdrone ship, SpaceX’s feed cut out, leaving both those watching at home and the company clueless as to whether or not the rocket had landed safely. The rocket was visible upright on the pad for a moment between the smoke clouds. But something happened (perhaps a tip-over, like we saw earlier this year, or it simply came in too hard or fast), and the rocket was destroyed, according to SpaceX.

Although this rocket didn’t stick its landing, both satellites attached to the rocket were successfully deployed into space. We’ll update you on just what happened, as we find out the details.

Update 10:15 am: It appears the problem with this landing stems from insufficient thrust from one of the rocket’s three engines. Elon Musk described the problem on Twitter as an “RUD=Rapid Unscheduled Disassembly”.

Engineers have apparently already begun working on a solution that would let the other engines compensate for such problems. Musk estimates that the fix should be ready before the end of the year.

Update 10:40 am: Although the rocket may not have emerged from today’s launch, the satellites both did quite nicely.

Musk also said that the footage of the crash, which he described as “maybe [the] hardest impact to date”, from the drone ship’s POV is on its way later today.

The drone ship, fortunately, emerged from its encounter unscathed.

Liftoff:


And, uh, landing:partay::


...

Meh, stuff happens. The most important question in events like this is always "Did your wreckage at least make it"


Easy fix. Just add more boosters:lol:.

Forget the rocket, engines, launch, satellites etc... even the live coverage is a treat to watch.
/me jealous :devil:
 
Non-space NASA project

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NASA Electric Research Plane Gets X Number, New Name


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With 14 electric motors turning propellers and all of them integrated into a uniquely-designed wing, NASA will test new propulsion technology using an experimental airplane now designated the X-57 and nicknamed “Maxwell.”

NASA Administrator Charles Bolden highlighted the agency’s first X-plane designation in a decade during his keynote speech Friday in Washington at the American Institute of Aeronautics and Astronautics (AIAA) annual Aviation and Aeronautics Forum and Exposition, commonly called Aviation 2016.

“With the return of piloted X-planes to NASA’s research capabilities – which is a key part of our 10-year-long New Aviation Horizons initiative – the general aviation-sized X-57 will take the first step in opening a new era of aviation,” Bolden said.

As many as five larger transport-scale X-planes also are planned as part of the initiative. Its goals – like the X-57 – include demonstrating advanced technologies to reduce fuel use, emissions and noise, and thus accelerate their introduction to the marketplace.

The X-57 number designation was assigned by the U.S. Air Force, which manages the history-making process, following a request from NASA. The first X-plane was the X-1, which in 1947 became the first airplane to fly faster than the speed of sound.

“Dozens of X-planes of all shapes, sizes and purposes have since followed – all of them contributing to our stature as the world’s leader in aviation and space technology,” said Jaiwon Shin, associate administrator for NASA’s Aeronautics Research Mission Directorate. “Planes like the X-57, and the others to come, will help us maintain that role.”

NASA researchers working directly with the electric airplane also chose to name the aircraft “Maxwell” to honor James Clerk Maxwell, the 19th century Scottish physicist who did groundbreaking work in electromagnetism. His importance in contributing to the understanding of physics is rivaled only by Albert Einstein and Isaac Newton part of a four-year flight demonstrator plan, NASA’s Scalable Convergent Electric Propulsion Technology Operations Research project will build the X-57 by modifying a recently procured, Italian-designed Tecnam P2006T twin-engine light aircraft.

Its original wing and two gas-fueled piston engines will be replaced with a long, skinny wing embedded with 14 electric motors – 12 on the leading edge for take offs and landings, and one larger motor on each wing tip for use while at cruise altitude.

NASA’s aeronautical innovators hope to validate the idea that distributing electric power across a number of motors integrated with an aircraft in this way will result in a five-time reduction in the energy required for a private plane to cruise at 175 mph.

Several other benefits would result as well. “Maxwell” will be powered only by batteries, eliminating carbon emissions and demonstrating how demand would shrink for lead-based aviation fuel still in use by general aviation.

Energy efficiency at cruise altitude using X-57 technology could benefit travelers by reducing flight times, fuel usage, as well as reducing overall operational costs for small aircraft by as much as 40 percent. Typically, to get the best fuel efficiency an airplane has to fly slower than it is able. Electric propulsion essentially eliminates the penalty for cruising at higher speeds.

Finally, as most drivers of hybrid electric cars know, electric motors are more quiet than conventional piston engines. The X-57’s electric propulsion technology is expected to significantly decrease aircraft noise, making it less annoying to the public.

The X-57 research started as part of the NASA Aeronautics Research Mission Directorate's Transformative Aeronautics Program's Convergent Aeronautics Solutions project, with the flight demonstrations being performed as part of the Flight Demonstration Concepts project in the Integrated Aviation Systems Program.


... Stupid auto-merging:angry:



Blue Origin Will Soon Launch a Crew Capsule—and Then Crash It on Purpose

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Blue Origin, the notoriously-secretive space company, is launching its New Shepherd crew capsule this weekend. And, for the first time, you’re going to be able to watch it happen—right up to a pretty probable crash-landing.

The plan is to launch New Shepherd using one of its new BE-4 rocket engines and begin some maneuvering tests of the capsule. But, seven minutes into the flight, something alarming is going to take place: one of the capsule’s parachutes is going to fail. On purpose.

Although New Shepherd is designed as a crew capsule, it will be empty on this run, which is an attempt to stress test the capsule. Like the old Apollo flights, New Shepherd uses a triple parachute combo to add drag to the capsule as it comes in for a touchdown.

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In 1971, Apollo 15's crew capsule experienced exactly the same parachute failure scenario, with one of the three failing to open as it splashed down into the Pacific Ocean. All the crew members inside were unharmed, but the capsule did go through what NASA described as a “hard impact.”

Blue Origin CEO Jeff Bezos said in an emailed statement that he believes his capsule will be capable of “safely handling” a parachute failure and even a resulting crash-landing, thanks to a shock-absorbing crushable structure. The intention, though, is to use the capsule’s “retro rocket” system—which kicks in when New Shepherd is just feet above the ground—to avoid the crash altogether.

“On this flight, we’ll intentionally fail one string of parachutes on the capsule. There are three strings of chutes and two of the three should still deploy nominally and, along with our retrothrust system, safely land the capsule,” said Bezos. “Works on paper, and this test is designed to validate that.”

But, despite those measures, as he also tweeted this morning, “And of course–development test flight–anything can happen.”

The New Shepard launch was originally supposed to take place today, but a leaky gasket in the capsule’s nitrogen gas pressurization system grounded the capsule. The launch was instead pushed to Sunday morning.

*BE-4: just one of many rockets vying for the coveted spot currently occupied by the RD-180.
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Previous Blue Origin launches have been heavily-shrouded from the public, with the launches often remaining secret until well after they had been successfully-completed. Competitor SpaceX used the opposite approach, releasing not just livecasts of all its launches—crashes and all—but also typically multiple views.

In just the last few months, Blue Origin has started to open up its process slightly, letting reporters into its facility for the first time. This, however, is the first launch that it will share with the public directly and not after the fact. And it’s no coincidence that it’s starting with a test of the New Shepard capsule.

Bezos has said that he wants to start operating space tourism flights within the next two years, by 2018. The New Shepard and the BE-4 engine that is launching it this weekend is exactly the same combination he’s identified as the probable vehicle for those tourism goals, shuttling up flights of six tourists at a time to experience brief bouts of weightlessness.

As the time when Blue Origin is going to attempt to book customers draws closer, broadcasting what is—essentially—an abilities-showcase and a safety test for that capsule/engine combination makes sense. We’ll be back on Sunday to see how it goes.
 

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