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Tuesday 31 January 2023

Starlink satellites, Italian space tug launched by SpaceX rocket

SpaceX’s Falcon 9 rocket lifts off from Vandenberg Space Force Base on Tuesday, Jan. 31. Credit: Brian Sandoval / Spaceflight Now

SpaceX launched a Falcon 9 rocket Tuesday from California’s Central Coast with 49 Starlink internet satellites and a rideshare space tug for the Italian company D-Orbit, itself carrying tech demo experiments and cremated human remains for customers in the United States, Germany, New Zealand, and Switzerland.

The mission was SpaceX’s seventh launch of the year, and the second of 2023 from Vandenberg Space Force Base, a military spaceport about 140 miles (225 kilometers) northwest of Los Angeles.

Officials delayed the launch two days to allow more time to complete preflight preparations, but the rocket was ready and weather was favorable for liftoff at 8:15 a.m. PST (11:15 a.m. EST; 1615 GMT) Tuesday from Space Launch Complex 4-East, SpaceX’s West Coast launch site.

The 229-foot-tall (70-meter) Falcon 9 rocket vaulted off the launch pad with 1.7 million pounds of thrust from its nine kerosene-fueled Merlin engines. The rocket steered south-southeast on a path parallel to the Pacific coastline, and fired its first stage engines for about two-and-a-half minutes before the booster separated to begin a descent toward SpaceX’s drone ship “Just Read the Instructions” west of Baja California.

After arcing to the edge of space, the booster re-entered the atmosphere and accomplished a bullseye propulsive landing about eight-and-a-half minutes after liftoff. It was the seventh flight to space for the booster, designated B1071 in SpaceX’s inventory of reusable rockets.

The Falcon 9’s upper stage fired its single engine two times to inject the 49 Starlink internet satellites and the rideshare payload from D-Orbit into an orbit around 207 miles (333 kilometers) above Earth, at an inclination of 70 degrees to the equator.

Deployment of the D-Orbit ION satellite carrier vehicle from the Falcon 9’s upper state occurred 57 minutes after liftoff, followed by separation of the 49 Starlink satellites about 20 minutes later.

The Starlink satellites will use their on-board plasma propulsion systems to raise their altitude into SpaceX’s operational network.

SpaceX’s first-generation Starlink fleet is spread out into five groups, or orbital shells, between 335 miles and 354 miles in altitude. The first-generation Starlink shells are inclined at different angles to the equator, with some satellites orbiting between 53 degrees north and south latitude, and others in orbits flying from pole-to-pole.

SpaceX’s Falcon 9 rocket deployed 49 Starlink internet satellites and an orbital transfer vehicle from the Italian company D-Orbit. Credit: SpaceX

The Starlink satellites on this launch, named Starlink 2-6, flew into an orbit inclined 70 degrees to the equator. It’s the third launch into Group 2, following missions in September 2021 and on Jan. 19.

SpaceX began launching satellites into its second-generation Starlink constellation, called Gen2, last month. The Starlink 2-6 mission continued filling out the first-generation Starlink fleet.

The Federal Communications Commission granted SpaceX approval Dec. 1 to launch up to 7,500 of its planned 29,988-spacecraft Starlink Gen2 constellation. The regulatory agency deferred a decision on the remaining satellites SpaceX proposed for Gen2.

The FCC previously authorized SpaceX to launch and operate roughly 4,400 first-generation Ka-band and Ku-band Starlink spacecraft that SpaceX has been launching since 2019.

The Gen2 satellites could improve Starlink coverage over lower latitude regions, and help alleviate pressure on the network from growing consumer uptake. Starlink service is now available in more than 40 countries on all seven continents, with SpaceX most recently adding Peru and Nigeria to the list.

D-Orbit’s ION SCV009 spacecraft hosts multiple payloads, including the demonstration of a new satellite release ring that could be incorporated on future launch vehicles and space tugs. The 8-inch payload release ring was developed by Connecticut-based Ensign-Bickford Aerospace & Defense Company.

The payload release system will be connected to a satellite simulator, according to D-Orbit. The company’s ION SCV009 spacecraft will maneuver into a lower orbit after separation from the Falcon 9, allowing the tech demo experiment to occur closer to Earth’s atmosphere. The satellite simulator to be released from the D-Orbit spacecraft is expected to burn up in the atmosphere within four to eight weeks, the company said, reducing the risk of creating new space junk.

D-Orbit’s ninth ION satellite carrier, dubbed “Eclectic Elena,” launched on SpaceX’s Falcon 9 rocket Tuesday from California. Credit: D-Orbit

The D-Orbit space tug, nicknamed “Eclectic Elena,” also hosts an on-board computer developed by a team of researchers and students at the Swiss technology institute EPFL. Engineers will test the performance of the computer in the environment of space before the design is used on future small satellite missions, including EPFL’s CHESS mission, a pair of CubeSats that will collect measurements on the upper atmosphere.

Another payload on the D-Orbit transfer vehicle is a drag sail developed by a German company named HPS. The thin membrane of the aerobrake will deploy to a dimension of 54 square feet (5 square meters) to accelerate the re-entry of the spacecraft at the end of its mission.

D-Orbit’s rideshare mission also carries cremated human remains on a memorial spaceflight opportunity arranged by a New Zealand company named StardustMe.

Email the author.

Follow Stephen Clark on Twitter: @StephenClark1.



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Comment on SpaceX Launches 2022’s Tenth Falcon 9 from Vandenberg, As Busy October Beckons by SpaceX Launches 200th Falcon 9, Continues Vandenberg Cadence - AmericaSpace

[…] satellite in mid-June, and three Starlink batches—totaling 147 satellites—in late July, early October and this morning. Added to that list, a few days before Christmas she lofted the NASA-led Surface […]



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SpaceX Launches 200th Falcon 9, Continues Vandenberg Cadence

@SpaceX launched its 200th #Falcon9 mission on Tuesday from Vandenberg, wrapping up an impressive 7-flight January.

The post SpaceX Launches 200th Falcon 9, Continues Vandenberg Cadence first appeared on AmericaSpace.



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Live coverage: SpaceX launch from California set for today

Live coverage of the countdown and launch of a Falcon 9 rocket from Vandenberg Space Force Base in California on the Starlink 2-6 mission with 49 Starlink internet satellites and a rideshare payload for the Italian company D-Orbit. Text updates will appear automatically below; there is no need to reload the page. Follow us on Twitter.

SpaceX Webcast

SpaceX Mission Audio



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Saturday 28 January 2023

“Major Malfunction”: Remembering Challenger’s Last Launch, OTD in 1986

OTD in 1986, one of the most horrifying disasters played out live on television screens around the world. Tonight, America remembers the loss of Challenger, 36 years on.

The post “Major Malfunction”: Remembering Challenger’s Last Launch, OTD in 1986 first appeared on AmericaSpace.



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Friday 27 January 2023

Comment on SpaceX Logs Second Mission in Two Days, as Busy November Beckons by SpaceX Launches 9x-Flown Falcon 9, First Eight-Mission Month Beckons - Space News

[…] satellite uphill for Turkey, the CRS-25 Cargo Dragon to the ISS, a 54-strong Starlink payload and the high-powered Hotbird 13G broadband satellite. With Thursday’s launch, B1067 turned the seventh Falcon 9 core in lower than two years to log a […]



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Comment on SpaceX Launches GPS III-06, Busy January Continues by SpaceX Launches 9x-Flown Falcon 9, First Eight-Mission Month Beckons - Space News

[…] first launch out of Vandenberg House Pressure Base, Calif., and the extremely categorized USSF-67 and the sixth Block III Global Positioning System (GPS III-06) for the U.S. House Pressure adopted in fast […]



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Comment on SpaceX Launches First 2023 Vandenberg Mission by SpaceX Launches 9x-Flown Falcon 9, First Eight-Mission Month Beckons - Space News

[…] with a salvo of flights from the East and West Coasts because the final days of January ebb away. Having already flown five times contained in the month’s first three weeks—including the return of the triple-barreled Falcon […]



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Comment on “The Slightest Glitch”: Remembering The Fire, OTD in 1967 by Alex Burford

Wally Schirra, after a disappointing training run aboard the Apollo 1 Spacecraft, told Grissom, “I don’t know Gus. there’s no nothing wrong with this ship that I can see, but something about it just doesn’t ring right.”
Grissom was uncharacteristically nonchalant and replied, “I’ll keep an eye on it.”
It’s a Pity that such a preventable tragedy happened anyway.



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“The Slightest Glitch”: Remembering The Fire, OTD in 1967

OTD in 1967, three lives were lost in the pursuit of reaching the Moon. Tonight, America and the world remembers the sacrifice of Apollo 1.

The post “The Slightest Glitch”: Remembering The Fire, OTD in 1967 first appeared on AmericaSpace.



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Thursday 26 January 2023

Comment on SpaceX Launches First 2023 Vandenberg Mission by SpaceX Launches 9x-Flown Falcon 9, First Eight-Mission Month Beckons - AmericaSpace

[…] with a salvo of flights from the East and West Coasts as the last days of January ebb away. Having already flown five times inside the month’s first three weeks—including the return of the triple-barreled Falcon Heavy […]



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SpaceX Launches 9x-Flown Falcon 9, First Eight-Mission Month Beckons

@SpaceX has successfully flown a 9x-used #Falcon9, its 6th mission of a possible record-setting 8 missions in Jan.

The post SpaceX Launches 9x-Flown Falcon 9, First Eight-Mission Month Beckons first appeared on AmericaSpace.



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Wednesday 25 January 2023

Watch live: SpaceX on track for predawn launch from Cape Canaveral

Watch our live coverage of the countdown and launch of a SpaceX Falcon 9 rocket on the Starlink 5-2 mission at 4:22 a.m. EST (0922 GMT) on Jan. 26 from Space Launch Complex 40 at Cape Canaveral Space Force Station, Florida. Follow us on Twitter.

SFN Live

Another batch of 56 Starlink satellites will rocket into orbit from Cape Canaveral before dawn Thursday aboard a Falcon 9 launcher, continuing the deployment of SpaceX’s second-generation internet constellation begun last month.

The mission will be the fifth launch by SpaceX so far this year, and the 69th launch launch with a primary purpose of placing Starlink internet satellites into orbit. With the 56 fresh spacecraft set for launch Tuesday, SpaceX will have deployed 3,773 Starlink satellites, with plans to add thousands more in the coming years.

Liftoff of the 229-foot-tall (70-meter) Falcon 9 rocket from pad 40 at Cape Canaveral Space Force Station is set for 4:22 a.m. EST (0922 GMT) Thursday.

Forecasters from the U.S. Space Force’s 45th Weather Squadron predict a 70% chance of good weather for launch, with isolated rain showers and mostly cloudy conditions expected. The primary weather concerns for launch are cumulus clouds and thick clouds, and the risk of lightning.

The 56 Starlink internet satellites mounted on top of the Falcon 9 rocket will head into an orbital plane that is part of SpaceX’s second-generation Starlink net network, called Gen2. The mission is designated Starlink 5-2, and follows the first Starlink launch into the Gen2 network Dec. 28, which carried 54 satellites.

SpaceX plans to eventually launch second-generation Starlink satellites on the company’s new Starship mega-rocket. Those satellites will be larger and more capable than SpaceX’s current fleet of Starlink spacecraft, and will be capable of transmitting signals directly to cell phones. But with the Starship rocket still undergoing preparations for its first orbital test flight, SpaceX officials signaled they will start launching the Gen2 satellites on Falcon 9 rockets.

Elon Musk, SpaceX’s founder and CEO, suggested in August that the company could develop a miniature version of the Gen2 satellites to fit on the Falcon 9 rocket.

The satellites on the first Gen2 launch last month appeared similar, or identical, to Starlink spacecraft SpaceX is already launching to complete its first-generation network, and not the larger Gen2 satellites destined to fly on the huge new Starship rocket, or even the mini Gen2 satellites Musk mentioned last year.

SpaceX’s Falcon 9 rocket for the Starlink 5-2 mission stands on pad 40 on the eve of liftoff. Credit: Stephen Clark / Spaceflight Now

The Federal Communications Commission granted SpaceX approval Dec. 1 to launch up to 7,500 of its planned 29,988-spacecraft Starlink Gen2 constellation. The regulatory agency deferred a decision on the remaining satellites SpaceX proposed for Gen2.

“Under our new license, we are now able to deploy satellites to new orbits that will add even more capacity to the network,” SpaceX wrote on its website before the first Gen2 launch Dec. 28. “Ultimately, this enables us to add more customers and provide faster service – particularly in areas that are currently over-subscribed.”

The FCC previously authorized SpaceX to launch and operate up to 12,000 Starlink satellites, including roughly 4,400 first-generation Ka-band and Ku-band Starlink spacecraft that SpaceX has been launching since 2019. SpaceX also received regulatory approval to launch more than 7,500 Starlink satellites operating in a different V-band frequency.

SpaceX told the FCC earlier this year it planned to consolidate the V-band Starlink fleet into the larger Gen2 constellation.

The Gen2 satellites could improve Starlink coverage over lower latitude regions, and help alleviate pressure on the network from growing consumer uptake. SpaceX said last month the network has more than 1 million active subscribers. The Starlink spacecraft beam broadband internet signals to consumers around the world, connectivity that is now available on all seven continents with testing underway at a research station in Antarctica.

“Our action will allow SpaceX to begin deployment of Gen2 Starlink, which will bring next generation satellite broadband to Americans nationwide, including those living and working in areas traditionally unserved or underserved by terrestrial systems,” the FCC wrote in its Dec. 1 order partially approving the Starlink Gen2 constellation. “Our action also will enable worldwide satellite broadband service, helping to close the digital divide on a global scale.

“At the same time, this limited grant and associated conditions will protect other satellite and terrestrial operators from harmful interference and maintain a safe space environment, promoting competition and protecting spectrum and orbital resources for future use,” the FCC wrote. “We defer action on the remainder of SpaceX’s application at this time.”

Specifically, the FCC granted SpaceX authority to launch the initial block of 7,500 Starlink Gen2 satellites into orbits at 525, 530, and 535 kilometers, with inclinations of 53, 43, and 33 degrees, respectively, using Ku-band and Ka-band frequencies. The FCC deferred a decision on SpaceX’s request to operate Starlink Gen2 satellites in higher and lower orbits.

Like the first Gen2 launch last month, the Starlink 5-2 mission Thursday will target the 530-kilometer-high (329-mile) orbit at an inclination of 43 degrees to the equator.

The Starlink 5-2 mission will add 56 more satellites to SpaceX’s Starlink internet network. Credit: Spaceflight Now

SpaceX currently has nearly 3,400 functioning Starlink satellites in space, with more than 3,100 operational and roughly 200 moving into their operational orbits, according to a tabulation by Jonathan McDowell, an expert tracker of spaceflight activity and an astronomer at the Harvard-Smithsonian Center for Astrophysics.

The first-generation Starlink network architecture includes satellites flying a few hundred miles up, orbiting at inclinations of 97.6 degrees, 70 degrees, 53.2 degrees, and 53.0 degrees to the equator. Most of SpaceX’s recent Starlink launches have released satellites into Shell 4, at an inclination of 53.2 degrees, after the company largely completed launches into the first 53-degree inclination shell last year.

Shell 5 of the Starlink network was widely believed to be one of the polar-orbiting layers of the constellation, at 97.6 degrees inclination. But the name of the first Gen2 missions — Starlink 5-1 and 5-2 — appear to suggest SpaceX has changed the naming scheme for the Starlink shells.

SpaceX’s launch team will be stationed inside a launch control center just south of Cape Canaveral Space Force Station for Thursday’s predawn countdown. SpaceX will begin loading super-chilled, densified kerosene and liquid oxygen propellants into the Falcon 9 vehicle at T-minus 35 minutes.

Helium pressurant will also flow into the rocket in the last half-hour of the countdown. In the final seven minutes before liftoff, the Falcon 9’s Merlin main engines will be thermally conditioned for flight through a procedure known as “chilldown.” The Falcon 9’s guidance and range safety systems will also be configured for launch.

After liftoff, the Falcon 9 rocket will vector its 1.7 million pounds of thrust — produced by nine Merlin engines — to steer southeast over the Atlantic Ocean. SpaceX has resumed launches this winter using the southeasterly corridor from Cape Canaveral, rather than trajectories to the northeast, to take advantage of better sea conditions for landing of the Falcon 9’s first stage booster.

Throughout the summer and fall, SpaceX launched Starlink missions on paths toward the northeast from Florida’s Space Coast.

The Falcon 9 rocket will exceed the speed of sound in about one minute, then shut down its nine main engines two-and-a-half minutes after liftoff. The booster stage will separate from the Falcon 9’s upper stage, then fire pulses from cold gas control thrusters and extend titanium grid fins to help steer the vehicle back into the atmosphere.

Two braking burns will slow the rocket for landing on the drone ship “Just Read the Instructions” around 410 miles (660 kilometers) downrange approximately nine minutes after liftoff.

The Falcon 9’s reusable payload fairing will jettison during the second stage burn. A recovery ship is also on station in the Atlantic to retrieve the two halves of the nose cone after they splash down under parachutes.

Landing of the first stage on Thursday’s mission will occur just as the Falcon 9’s second stage engine cuts off to deliver the Starlink satellites into orbit. Separation of the 56 Starlink spacecraft, built by SpaceX in Redmond, Washington, from the Falcon 9 rocket is expected nearly 19 minutes after liftoff. SpaceX may have to wait until the rocket passes over a ground station in Guam to confirm Starlink separation from the upper stage.

The Falcon 9’s guidance computer aims to deploy the satellites into an elliptical orbit at an inclination of 43 degrees to the equator, with an altitude ranging between 131 miles and 209 miles (212-by-337 kilometers). After separating from the rocket, the 56 Starlink spacecraft will unfurl solar arrays and run through automated activation steps, then use ion engines to maneuver into their operational orbit.

ROCKET: Falcon 9 (B1067.9)

PAYLOAD: 56 Starlink satellites (Starlink 5-2)

LAUNCH SITE: SLC-40, Cape Canaveral Space Force Station, Florida

LAUNCH DATE: Jan. 26, 2023

LAUNCH TIME: 4:22 a.m. EST (0922 GMT)

WEATHER FORECAST: 70% chance of acceptable weather; Low to moderate risk of upper level winds; Low risk of unfavorable conditions for booster recovery

BOOSTER RECOVERY: “Just Read the Instructions” drone ship northeast of the Bahamas

LAUNCH AZIMUTH: Southeast

TARGET ORBIT: 131 miles by 209 miles (212 kilometers by 337 kilometers), 43.0 degrees inclination

LAUNCH TIMELINE:

  • T+00:00: Liftoff
  • T+01:12: Maximum aerodynamic pressure (Max-Q)
  • T+02:28: First stage main engine cutoff (MECO)
  • T+02:31: Stage separation
  • T+02:38: Second stage engine ignition
  • T+02:42: Fairing jettison
  • T+06:42: First stage entry burn ignition (three engines)
  • T+07:00: First stage entry burn cutoff
  • T+08:23: First stage landing burn ignition (one engine)
  • T+08:43: Second stage engine cutoff (SECO 1)
  • T+08:44: First stage landing
  • T+18:49: Starlink satellite separation

MISSION STATS:

  • 199th launch of a Falcon 9 rocket since 2010
  • 209th launch of Falcon rocket family since 2006
  • 9th launch of Falcon 9 booster B1067
  • 171st Falcon 9 launch from Florida’s Space Coast
  • 111th Falcon 9 launch from pad 40
  • 166th launch overall from pad 40
  • 141st flight of a reused Falcon 9 booster
  • 69th Falcon 9 launch primarily dedicated to Starlink network
  • 5th Falcon 9 launch of 2023
  • 6th launch by SpaceX in 2023
  • 5th orbital launch attempt based out of Cape Canaveral in 2023

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Follow Stephen Clark on Twitter: @StephenClark1.



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Rocket Lab primed for busy year after first launch from Virginia

Nine kerosene-fueled Rutherford engines power Rocket Lab’s Electron launcher off the launch pad Tuesday night at Wallops Island, Virginia. Credit: Rocket Lab / Trevor Mahlmann

Rocket Lab’s first mission from a launch pad in Virginia delivered three small commercial satellites into orbit Tuesday night, starting what the company hopes will be a banner year with at least 15 flights from the new U.S. launch site and a spaceport in New Zealand.

The long-delayed mission, kept on the ground by software issues on a new NASA-developed flight termination unit, took off from the Mid-Atlantic Regional Spaceport co-located with NASA’s Wallops Flight Facility at 6 p.m. EST (2300 GMT) Tuesday. Rocket Lab’s 59-foot-tall (18-meter) Electron booster quickly zipped off the launch pad and flew southeast over the Atlantic Ocean, light from its nine kerosene-engines dimming in the night sky as it climbed into the upper atmosphere.

The rocket’s Rutherford main engines produced more than 50,000 pounds of thrust to push the small satellite launcher higher above the Atlantic. Two-and-a-half minutes later, the rocket shed its no-longer-needed first stage booster to fall uncontrolled into the sea. An upper stage engine ignited for more than six minutes to deliver a final piece of the rocket, called a kick stage, to a preliminary orbit around Earth.

The kick stage coasted for about 45 minutes before a minute-long burn to maneuver into a more stable orbit at an altitude of around 341 miles (550 kilometers) and an inclination of 40.5 degrees to the equator. The rocket then deployed three small microsatellites for Virginia-based HawkEye 360, each about 66 pounds (30 kilograms), to begin missions detecting and characterizing radar and radio transmissions for commercial and government clients.

Rocket Lab had to wait more than 30 minutes longer than expected to confirm the final milestones in the mission because a ground station in Australia dropped offline, and was unable to relay telemetry from the rocket back to launch engineers in New Zealand and the United States. The launch team confirmed the successful payload deployment during a later pass over a California ground station.

Peter Beck, Rocket Lab’s founder and CEO, said in an interview with Spaceflight Now that the ground station in Western Australia experienced “some data loss and some networking issues.”

But the Electron rocket and the new launch pad at Wallops Island, Virginia, located on the Eastern Shore about 110 miles (175 kilometers) southeast of Washington, appeared to work flawlessly on Tuesday night’s mission.

“Electron is already the leading small orbital rocket globally, and today’s perfect mission from a new pad is testament to our team’s unrelenting commitment to mission success,” Beck said in a press release. “After our busiest launch year yet in 2022 with nine successful missions, what better way to kick off the new year than by launching Virginia-built spacecraft from a Virginia launch site, enabled by our rapidly growing Virginia-based team.”

The launch was the 33rd mission, and the 30th successful flight, by Rocket Lab, a company founded in New Zealand that now has its corporate headquarters in Long Beach, California. All 32 of Rocket Lab’s previous flights, which began in 2017, departed from the company’s private-owned spaceport on Mahia Peninsula, located on the North Island of New Zealand, driving distance from a rocket factory in Auckland.

Rocket Lab launched nine mission last year, a record for the company, and plans at least 15 launches in 2023, Beck told Spaceflight Now in an interview after Tuesday night’s flight.

“The cadence will be pretty rapid,” Beck said.

With the new launch pad in Virginia now online, about four to six of the 15 launches Rocket Lab has scheduled this year will take off from Wallops Island, according to Beck. The next Rocket Lab mission will launch from Virginia, and the rocket for that flight has already been delivered after a trans-ocean shipment from New Zealand.

A date and a payload for the the next Rocket Lab mission have not been released, but it is likely planned for some time in February.

The Electron rocket  is sized to haul small satellites into orbit. The Electron can haul up to 440 pounds (200 kilograms) to a 310-mile-high (500-kilometer) polar orbit, according to Rocket Lab, which has carved a niche in the global launch market for delivering small payloads on dedicated rides to low Earth orbit. Larger rockets, such as SpaceX’s Falcon 9, can carry numerous small satellites on rideshare missions, but often does not release the payloads in each customer’s preferred orbit.

Rocket Lab’s 33rd mission, and first from U.S. soil, lifted off from Wallops Island, Virginia, on Tuesday night. Credit: Rocket Lab / Brady Kenniston

Rocket Lab’s launch pad in Virginia, called Launch Complex 2, gives the company three active launch pads, including two facilities at the Mahia Peninsula location in New Zealand.

The new Electron launch pad in Virginia is designed to support up to 12 launches per year, including “rapid call-up” missions, giving the military a quick-response launch option, Rocket Lab said when construction was completed at the new launch complex in 2019.

The Mid-Atlantic Regional Spaceport is run by the Virginia Commercial Space Flight Authority, or Virginia Space, an organization created by the Virginia legislature to promote commercial space activity within the commonwealth. The spaceport on Wallops Island now has three orbital-class launch facilities, one for Rocket Lab, one for Northrop Grumman’s Antares rocket, and another used to launch solid-fueled Minotaur boosters.

Rocket Lab’s pad sits next to the Antares launch site on Wallops Island.

Rocket Lab’s hangar at Wallops is designed to accommodate up to three Electron rockets at a time. With its new Virginia launch site online, Rocket Lab says it will have flexibility to move missions between different launch ranges. And some U.S. government customers prefer to launch their payloads from the United States.

Rocket Lab also plans to launch its larger next-generation reusable rocket, called Neutron, from a new launch pad on Wallops Island. The company is building a factory and integration and test facilities for the Neutron program in Virginia, combining manufacturing and operations capabilities at the spaceport on the Eastern Shore. The Neutron’s first stage will also land at a site on Wallops Island.

Rocket Lab’s launch Tuesday night also debuted a new flight safety system developed as a cheaper, more flexible, customizable autonomous flight termination unit for a new generation of commercial launch vehicles.

Other companies, like SpaceX, have developed proprietary autonomous flight termination systems for use on their own rockets. The NASA Autonomous Flight Termination Unit, or NAFTU, can be adopted by multiple launch service providers.

But software problems with the NAFTU system delayed the debut of Rocket Lab in Virginia more than two years.

NASA developed the NAFTU system in partnership with the U.S. military and the FAA. It’s designed to help streamline rocket operations from Wallops and other launch ranges around the country.

David Pierce, director of NASA’s Wallops Flight Facility, said the rocket-agnostic autonomous flight termination system will help enable “responsive launch capability for the United States.”

“It’s been nothing short of a herculean effort to get us to this point, which I view as a turning in launch range operations, not just at Wallops but across the United States,” Pierce said. Eighteen companies have requested access to the NAFTU software code to merge it with their launch vehicles.

NASA hoped to have the NAFTU software ready for Rocket Lab to launch its first mission from Virginia in mid-2020. But Pierce said engineers “discovered of a number of errors in the software code” during validation testing. NASA partnered with the Space Force and FAA to fix and retest the software.

A flight termination system is a standard part of all space launches from U.S. spaceports, ensuring that a rocket can be destroyed if it veers off course and threatens populated areas after liftoff. With autonomous flight termination systems, range safety teams no longer need to be on standby to send a manual destruct command to the rocket.

The NAFTU was provisionally certified for Rocket Lab’s first launch from Virginia, and the system should be fully certified for future missions by Jan. 31, NASA said.

Three commercial radio frequency surveillance satellites for HawkEye 360 were the payloads for Rocket Lab’s first mission from Virginia. This image shows the satellites mated to Rocket Lab’s kick stage. Credit: Rocket Lab

With the two-and-a-half year delay in beginning launches from Virginia, Rocket Lab had to move the launch of the U.S. military payload originally slated for the first Electron flight from Wallops to the company’s New Zealand spaceport.

Three microsatellites for HawkEye 360 instead rode into orbit on Rocket Lab’s Virginia launch debut.

“We’re proud to be a Virginia-based company, with Virginia-developed technology, launching out of the Virginia spaceport,” said John Serafini, HawkEye 360’s CEO, in a press release. “We selected Rocket Lab because of the flexibility it enables for us to place the satellites into an orbit tailored to benefit our customers. Deploying our satellites on Rocket Lab’s inaugural launch is a giant leap in Virginia’s flourishing space economy.”

HawkEye 360 said its ground team established contact with all three new satellites shortly after Tuesday night’s launch, confirming they were healthy and in the correct orbit after separating from Rocket Lab’s kick stage.

The mission marked the sixth launch of HawkEye 360 satellites, and was the first of three dedicated Rocket Lab missions contracted by HawkEye 360. All of HawkEye 360’s satellites so far have launched on rideshare missions aboard SpaceX Falcon 9 rockets.

HawkEye 360 has launched 12 operational satellites since early 2021, helping detect, characterize, and locate the source of radio transmissions. Such data are useful in government intelligence-gathering operations, combating illegal fishing and poaching, and securing national borders, according to HawkEye 360.

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Tuesday 24 January 2023

Rocket Lab Successfully Launches First Electron Mission from U.S. Soil

@RocketLab has successfully launched its 1st Electron mission from U.S. soil @NASA_Wallops, carrying 3 sats for @hawkeye360.

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Live coverage: Rocket Lab’s first launch from Virginia set for tonight

Live coverage of the countdown and launch of a Rocket Lab Electron rocket from Launch Complex 2 at the Mid-Atlantic Regional Spaceport on Wallops Island, Virginia. The Electron rocket will carry three radio frequency monitoring microsatellites into orbit for HawkEye 360. Text updates will appear automatically below. Follow us on Twitter.

Rocket Lab’s live video webcast begins approximately 40 minutes prior to launch, and will be available on this page.



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Another countdown begins for Rocket Lab’s first launch from Virginia

Three small satellites for the U.S. company HawkEye 360 are awaiting liftoff on Rocket Lab’s first mission from U.S. soil. Credit: Rocket Lab

Rocket Lab is set to fill up its small Electron launcher with propellant fire it into space from Virginia Tuesday evening with three commercial satellites, the company’s second try to launch its first mission from U.S. soil after bad weather thwarted attempts last month.

The California-based launch provider has a two-hour window to send the Electron rocket into orbit Tuesday. The launch window opens at 6 p.m. EST (2300 GMT), and forecasters expect a 90% chance of favorable conditions for liftoff.

The 59-foot-tall (18-meter) rocket will take off powered by nine kerosene-fueled Rutherford engines, built at Rocket Lab’s headquarters in Long Beach, California. The Electron launcher will head southeast over the Atlantic Ocean with more than 50,000 pounds of thrust, then separate its first stage to fall into the sea. An upper stage engine will fire to place the mission’s three commercial payloads into a parking orbit, then a final maneuver by the rocket’s kick stage is required before releasing the satellites about an hour into the flight.

The launch Tuesday will be the 33rd Rocket Lab mission, and the first from the company’s new launch site in Virginia, called Launch Complex 2. All of the previous Rocket Lab flights originated from Launch Complex 1, the company’s privately-owned spaceport on the North Island of New Zealand.

Rocket Lab scrubbed a launch attempt in Virginia on Dec. 18 due to unfavorable upper level winds. Poor weather the next few days also prevented the rocket from getting off the ground, forcing Rocket Lab to reschedule the flight for a different launch period this month.

The company’s debut from the new Virginia launch pad has been delayed more than two years to wait for testing and certification of software for the rocket’s autonomous flight termination system. The NASA-developed customizable safety system is designed to provide autonomous flight termination capability to a range of different commercial launch vehicles, and Rocket Lab will be the first company to try it out on a real mission.

Other companies, like SpaceX, have developed proprietary autonomous flight termination systems for use on their own rockets. The NASA Autonomous Flight Termination Unit, or NAFTU, can be adopted by multiple launch service providers.

A flight termination system is a standard part of all space launches from U.S. spaceports, ensuring that a rocket can be destroyed if it veers off course and threatens populated areas after liftoff. With autonomous flight termination systems, range safety teams no longer need to be on standby to send a manual destruct command to the rocket.

Rocket Lab’s Electron launcher on the pad at Wallops Island, Virginia. Credit: Rocket Lab / Trevor Mahlmann

The new Electron launch pad in Virginia is designed to support up to 12 launches per year, including “rapid call-up” missions, giving the military a quick-response launch option, Rocket Lab said when construction was completed at the new launch complex in 2019.

The Mid-Atlantic Regional Spaceport, where Rocket Lab has set up shop at Launch Complex 2, is run by the Virginia Commercial Space Flight Authority, or Virginia Space, an organization created by the Virginia legislature to promote commercial space activity within the commonwealth. The spaceport on Wallops Island now has three orbital-class launch facilities, one for Rocket Lab, one for Northrop Grumman’s Antares rocket, and another used to launch solid-fueled Minotaur boosters.

Rocket Lab’s pad sits next to the Antares launch site on Wallops Island. The rocket for the next Rocket Lab launch from Virginia has already been delivered to the spaceport to start final launch preparations.

Rocket Lab’s hangar at Wallops is designed to accommodate up to three Electron rockets at a time. With its new Virginia launch site online, Rocket Lab says it will have flexibility to move missions between different launch ranges. And some U.S. government customers prefer to launch their payloads from the United States.

Rocket Lab also plans to launch its larger next-generation reusable rocket, called Neutron, from a new launch pad on Wallops Island. The company is building a factory and integration and test facilities for the Neutron program in Virginia, combining manufacturing and operations capabilities at the spaceport on the Eastern Shore.

With the two-and-a-half year delay in beginning launches from Virginia, Rocket Lab had to move the launch of the U.S. military payload originally slated for the first Electron flight from Wallops to the company’s New Zealand spaceport.

Three microsatellites for HawkEye 360, based in Northern Virginia, will instead ride into orbit on Rocket Lab’s Virginia launch debut.

This map shows the ground track and expected visibility of Rocket Lab’s first launch from Wallops Island, Virginia. Credit: NASA Wallops Flight Facility

The mission will mark the sixth launch of HawkEye 360 satellites, and is the first of three dedicated Rocket Lab missions contracted by HawkEye 360. All of HawkEye 360’s satellites so far have launched on rideshare missions aboard SpaceX Falcon 9 rockets.

HawkEye 360 has launched 12 operational satellites since early 2021, helping detect, characterize, and locate the source of radio transmissions. Such data are useful in government intelligence-gathering operations, combating illegal fishing and poaching, and securing national borders, according to HawkEye 360.

The satellites launching on Rocket Lab’s Electron rocket will be deployed into a 341-mile-high (550-kilometer) orbit at an inclination of 40.5 degrees to the equator. Rocket Lab does not plan to recover the rocket’s first stage booster after liftoff, as it has tried doing following recent launches from New Zealand.

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Monday 23 January 2023

SpaceX orbits 51 more Starlink satellites in year’s first launch from Vandenberg

SpaceX launched 51 more Starlink satellites Jan. 19 on the first launch of the year from Vandenberg Space Force Base, California. Credit: SpaceX

SpaceX’s first launch of the year from California, and fourth mission overall in 2023, added 51 more satellites to the Starlink internet constellation Thursday, keeping pace with the company’s goal of 100 Falcon rocket launches this year.

A Falcon 9 rocket took off from Space Launch Complex 4-East, or SLC-4E, at Vandenberg Space Force Base with 1.7 million pounds of thrust from nine Merlin 1D engines. The kerosene-fueled engines steered the rocket south-southeast from Vandenberg on a path over the Pacific Ocean.

Liftoff occurred at 7:43:10 a.m. PST (10:43:10 a.m. EST; 1543:10 GMT) Thursday, following more a week of delays due to a technical concern with the rocket and bad weather at the California spaceport, along with rough seas in a downrange recovery zone in the Pacific Ocean where the Falcon 9’s first stage booster aimed to land on a ship.

The 229-foot-tall (70-meter) rocket lit its nine kerosene-fueled engines and climbed through scattered clouds, surpassed the speed of sound in about a minute, then shut down its first stage booster around two-and-a-half minutes into the mission. The booster, numbered B1075 in SpaceX’s fleet, extended hypersonic titanium grid fins and successfully maneuvered to a controlled propulsive touchdown on a SpaceX drone ship west of Baja California.

The booster completed its first trip to space and will be returned to Southern California for refurbishment and use on a future SpaceX mission.

The Falcon 9’s upper stage, meanwhile, ignited its single engine and accelerated to roughly 17,000 mph, entering orbit with the mission’s 51 Starlink payloads. The rocket released the 51 satellites around 29 minutes after liftoff.

The rocket placed the 51 satellites into an orbit orbit inclined 70 degrees to the equator, deploying the spacecraft into Group 2 of the constellation.

SpaceX’s first-generation Starlink fleet is spread out into five groups, or orbital shells, between 335 miles and 354 miles in altitude. The first-generation Starlink shells are inclined at different angles to the equator, with some satellites orbiting between 53 degrees north and south latitude, and others in orbits flying from pole-to-pole.

The Starlink satellites on this launch, named Starlink 2-4, circle Earth in an orbit inclined 70 degrees to the equator. Its the second launch into Group 2, following a mission in September 2021 that also carried 51 Starlink spacecraft into orbit.

SpaceX began launching satellites into its second-generation Starlink constellation, called Gen2, last month. The Starlink 2-4 mission will continue filling out the first-generation Starlink fleet. The satellites will use on-board electric propulsion to maneuver from their lower-altitude transfer orbit up to an operating altitude of 354 miles (570 kilometers).

The Starlink 2-4 mission carried 51 more Starlink internet satellites into orbit. Credit: Spaceflight Now

The Federal Communications Commission granted SpaceX approval Dec. 1 to launch up to 7,500 of its planned 29,988-spacecraft Starlink Gen2 constellation. The regulatory agency deferred a decision on the remaining satellites SpaceX proposed for Gen2.

The FCC previously authorized SpaceX to launch and operate roughly 4,400 first-generation Ka-band and Ku-band Starlink spacecraft that SpaceX has been launching since 2019.

The Gen2 satellites could improve Starlink coverage over lower latitude regions, and help alleviate pressure on the network from growing consumer uptake. SpaceX said last month the network now has more than 1 million active subscribers. The Starlink spacecraft beam broadband internet signals to consumers around the world, connectivity that is now available on all seven continents with testing underway at a research station in Antarctica.

The launch Thursday from California was SpaceX’s fourth mission of 2023. SpaceX’s founder, Elon Musk, said last year the company aimed to fly as many as 100 missions in 2023, an increase from the 61 launches SpaceX accomplished in 2022.

Michael Ellis, SpaceX’s director for national security space launches, said in a conference call with reporters on Jan. 17 that the 100 missions include five flights of the company’s Falcon Heavy rocket, made by combining three Falcon 9 rocket cores together into one vehicle. One of the Falcon Heavy launches this year has already flown, successfully hauling two U.S. military payloads into orbit from Florida on Jan. 15.

In order to reach 100 missions this year, SpaceX plans to launch four more Falcon Heavy rocket the rest of the year, with the remaining flights set to use Falcon 9 rockets, according to Ellis. His statement suggested that test flights of SpaceX’s new Super Heavy and Starship rocket, planned to begin in the coming months, are not counted among the 100-mission goal SpaceX has publicized for 2023.

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Sunday 22 January 2023

“The Air from the Earth”: Remembering STS-89, OTD in 1998

OTD in 1998, Endeavour and 7 souls (including @BonnieJDunbar) roared to space for the shuttle's 8th docking to Russia's Mir space station. And they did so with a "Howl for the Wolfman".

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Friday 20 January 2023

Watch live: Astronauts on spacewalk to prep for new ISS solar arrays

Japanese astronaut Koichi Wakata and NASA astronaut Nicole Mann suited up and floated outside the International Space Station Friday for a planned six-and-a-half hour spacewalk to prepare the lab for arrival of another pair of new solar arrays later this year.

The astronauts switched their spacesuits to internal battery power at 8:14 a.m. EST (1314 GMT) Friday to mark the official start of the spacewalk, the first of the year at the space station.

Wakata and Mann will complete the installation of a mounting bracket near one of the space station’s eight existing solar arrays, associated with power channel 1B. Work on that task began on a previous spacewalk. Then the astronauts will begin to work on attaching a mounting frame for another solar array on power channel 1A.

The two power channels the astronauts will work on Friday are located on the starboard, or right, side of the space station’s solar power truss, which extends the length of a football field. Channel 1B is on the S6 truss section at the far right of the power truss, and Channel 1A is located on the next section inward, called S4.

The mounting frames, called modifications kits, will support the attachment of new roll-out solar arrays to be delivered to the space station later this year on a SpaceX Dragon cargo ship. SpaceX has already launched four of the roll-out solar arrays on two previous Dragon resupply missions in June 2021 and in November 2022.

This diagram illustrates the power truss of the International Space Station. The S4 and S6 sections are the focus of Friday’s spacewalk. Credit: NASA

The spacewalk Friday is part of a series of excursions to prepare for and install the new International Space Station Roll-Out Solar Arrays, or iROSA units. The iROSA units are built by Redwire, and are designed to augment the space station’s capability to generate electricity as the efficiency of the lab’s original solar panels declines with age.

NASA wants the mounting frame for each new solar array wing to be installed ahead of time. Then the astronauts go out on spacewalks to attach each new roll-out solar array by hand when they arrive on a SpaceX cargo freighter.

NASA astronauts Frank Rubio and Josh Cassada completed two spacewalks in December to install and unfurl the two newest roll-out solar arrays. Station crew members will perform similar work later this year when SpaceX delivers the final two roll-out solar arrays on a cargo mission tentatively set for launch in June.

The roll-out solar arrays launch wrapped around a spool to fit inside the Dragon spacecraft’s cargo trunk. Once deployed, they stretch about 63 feet long and 20 feet wide (19-by-6 meters), roughly half the length and half the width of the station’s original solar panels. The solar array blanket will deploy at a canted angle relative to the original solar panel on each truss, allowing sunlight to illuminate the new and old arrays.

Despite their smaller size, each of the new arrays generate about the same amount of electricity as each of the station’s existing solar panels.

Japanese astronaut Koichi Wakata and NASA astronaut Nicole Mann. Credit: NASA TV

The International Space Station has eight power channels, each fed with electrical power generated from one solar array wing extending from the station’s truss backbone.

The original solar panels launched on four space shuttle missions from 2000 to 2009. As expected, the efficiency of the station’s original solar arrays has degraded over time. NASA is upgrading the space station’s power system with the new roll-out solar arrays — at a cost of $103 million — which will partially cover six of the station’s eight original solar panels.

When all six iROSA units are deployed on the station, the power system will be capable of generating 215 kilowatts of electricity to support at least another decade of science operations. That’s a 30% increase in power generation capability. The enhancement will also accommodate new commercial modules planned to launch to the space station.

The spacewalk Friday will the first in the careers of Wakata and Mann, and the 258th spacewalk overall since 1998 in support of space station assembly and maintenance. Wakata is a veteran astronaut on his fifth flight to space, and Mann is on her first spaceflight.

Mann and Wakata launched Oct. 5 on a SpaceX Crew Dragon spacecraft with crewmates Josh Cassada and Russian cosmonaut Anna Kikina. They are scheduled to return to Earth in early March, after the arrival of another team of four astronauts and cosmonauts on SpaceX’s next crew launch.

NASA astronaut Frank Rubio and Russian cosmonauts Sergey Prokopyev and Dmitri Petelin round out the seven-person crew on the International Space Station. They arrived at the space station in September on a Russian Soyuz spacecraft.

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Thursday 19 January 2023

Comment on SpaceX Launches 40 OneWebs, Delays Vandenberg Starlink Mission by SpaceX Launches First 2023 Vandenberg Mission - Space News

[…] 2023’s first “stack” of Starlink low-orbiting web communications satellites. The B1075 core—whose opening launch attempt overnight on 9/10 January came to nought, due to poor weather and lashi…—lastly took flight at 7:43 a.m. PST (10:43 a.m. EST) and returned eight minutes later to alight […]



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Comment on SpaceX Launches 40 OneWebs, Delays Vandenberg Starlink Mission by SpaceX Launches From Vandenberg, Busy Year Ahead for West Coast - AmericaSpace

[…] first “stack” of Starlink low-orbiting internet communications satellites. The B1075 core—whose opening launch attempt overnight on 9/10 January came to nought, due to poor weather and lashi…—finally took flight at 7:43 a.m. PST (10:43 a.m. EST) and returned eight minutes later to alight […]



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SpaceX Launches First 2023 Vandenberg Mission

After being halted last week by poor weather on the California Coast, @SpaceX has kicked off a busy 2023 for Vandenberg Space Force Base.

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Live coverage: SpaceX plans to launch 51 Starlink satellites today from California

Live coverage of the countdown and launch of a Falcon 9 rocket from Vandenberg Space Force Base in California on the Starlink 2-4 mission with 51 Starlink internet satellites. Text updates will appear automatically below; there is no need to reload the page. Follow us on Twitter.

SpaceX Webcast



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Wednesday 18 January 2023

Comment on Crew-5 Targets 29 September Launch, Second Flight for Dragon Endurance by SpaceX Launches GPS III-06, Busy January Continues - Space News

[…] navigation and timing satellite tv for pc. Liftoff of B1077—which beforehand noticed service to loft Dragon Endurance and her Crew-5 quartet of NASA astronauts Nicole Mann and Josh Cassada, Japan’s Koichi Wakata and […]



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Comment on Crew-5 Ready for Wednesday Launch, Science-Filled Expedition 68 by SpaceX Launches GPS III-06, Busy January Continues - AmericaSpace

[…] Crew-5 to the space station. This particular booster suffered a rather inauspicious start in life, when her transport vehicle impacted a road bridge last summer, during transit from SpaceX’s assembly factory in Hawthorne, Calif., to the rocket development […]



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Comment on Crew-5 Targets 29 September Launch, Second Flight for Dragon Endurance by SpaceX Launches GPS III-06, Busy January Continues - AmericaSpace

[…] (GPS III-06) navigation and timing satellite. Liftoff of B1077—which previously saw service to loft Dragon Endurance and her Crew-5 quartet of NASA astronauts Nicole Mann and Josh Cassada, Japan’s Koichi Wakata and […]



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SpaceX Launches GPS III-06, Busy January Continues

@SpaceX has successfully launched the 6th Block III Global Positioning System (GPS), on behalf of @SpaceForceDoD.

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Tuesday 17 January 2023

GPS navigation satellite set for launch on SpaceX rocket

A SpaceX Falcon 9 rocket stands on pad 40 at Cape Canaveral Space Force Station in Florida before liftoff with the GPS 3 SV06 spacecraft. Credit: SpaceX

SpaceX’s second launch for the U.S. military in three days is set to blast off from Florida and deliver a GPS navigation satellite into orbit Wednesday, reinforcing the global positioning and timing network as four more GPS spacecraft are in storage at a Lockheed Martin factory in Colorado to be launched as needed over the next few years.

The launch of the U.S. Space Force’s GPS 3 SV06 mission — the sixth spacecraft in the latest generation of GPS 3-series satellites — is set for 7:10 a.m. EST (1210 GMT) Wednesday from pad 40 at Cape Canaveral Space Force Station in Florida. A SpaceX Falcon 9 rocket will give the satellite a ride into orbit. The Falcon 9 has a 15-minute launch window Wednesday.

The launch of the new GPS satellite Wednesday comes less than three days after a SpaceX Falcon Heavy rocket blasted off from Kennedy Space Center carrying two military satellites into geosynchronous orbit. That mission was successful, Space Force officials said.

Forecasters predict a greater than 90% chance of favorable weather Wednesday morning for liftoff of the Falcon 9 from Cape Canaveral, but officials will watch wind and sea conditions downrange in the booster recovery area. There is a moderate to high risk those conditions won’t be favorable for landing of the first stage, which could prompt SpaceX to delay the launch.

Once it lifts off, the 229-foot-tall (70-meter) Falcon 9 rocket will head northeast from Cape Canaveral to place the GPS 3 SV06 satellite at the proper altitude and inclination to reach a final operating position in the GPS constellation.

Following a standard launch profile, the Falcon 9 will fire its nine kerosene-fueled first stage engines for about two-and-a-half minutes. The booster will shut down and drop away from the Falcon 9’s upper stage, which will continue into orbit with the GPS satellite, first placing the payload into a parking orbit about eight minutes after liftoff.

At around the same time, the Falcon 9’s first stage booster — designed B1077 — will drop out of the sky and slow for landing on a SpaceX drone ship positioned a few hundred miles east of Charleston, South Carolina. The drone ship will bring the booster, set to make its second trip to space, back to Cape Canaveral for refurbishment and reuse on a future mission.

The payload fairing on top of the Falcon 9 will jettison a few moments after ignition of the upper stage engine for its first burn. SpaceX has dispatched a recovery ship into the Atlantic to also retrieve the two halves of the nose cone for reuse, after the aeroshells parachute into the sea.

About 63 minutes into the mission, the Falcon 9’s upper stage will reignite for about 44 seconds. The powerful engine, generating more than 200,000 pounds of thrust, will propel the GPS 3 SV06 spacecraft into an elongated orbit stretching to an altitude of some 12,550 miles (20,200 kilometers) at its highest point.

After flying into communications range of Space Force ground stations in Hawaii and California, the rocket will deploy the GPS satellite at about 1 hour and 29 minutes after liftoff.

Over the next one-to-two weeks, the satellite will use its own orbit-raising engine to maneuver into a circular Medium Earth Orbit 12,550 miles above Earth at an inclination of 55 degrees. If all goes according to plan, the new satellite, nicknamed “Amelia Earhart” after the aviation pioneer, will be transitioned to the control of Space Force operators.

The GPS 3 SV06 spacecraft is the sixth in a line of GPS 3-series satellites built by Lockheed Martin. In its launch configuration fully fueled with propellant, the satellite weighs 9,595 pounds (4,352 kilograms), according to Col. Jung Ha, senior materiel leader for the GPS Space Vehicles Acquisition Delta at Space Systems Command.

“The spacecraft is healthy and all systems are go,” Ha said Tuesday in a conference call with reporters.

Artist’s concept of a GPS 3 satellite in space. Credit: Lockheed Martin

Andre Trotter, Lockheed Martin’s vice president of navigation systems, said the company has four more GPS 3-series satellites ready for “call up” by the Space Force.

“We currently have four more GPS satellites in our Colorado facility that are available for launch and are prepared to answer the Space Force’s call,” Trotter told reporters Tuesday in a pre-launch news conference. Those satellites, numbered GPS 3 SV07 through SV10, are the final spacecraft in Lockheed Martin’s initial batch of GPS 3 satellites ordered by the Pentagon in 2008.

The next GPS satellite, GPS 3 SV07, is scheduled to launch in mid-2024 on a United Launch Alliance Vulcan rocket. It is a candidate to become the first national security payload to fly on ULA’s new Vulcan launch vehicle.

Construction of the first eight GPS 3 satellites is covered in a 2008 contract valued at $3.6 billion. The military ordered two additional GPS 3-type satellites later. The first GPS 3 satellite launched in 2018, and the most recent mission, SV05, launched in June 2021.

Military officials were unable to provide an exact cost for the GPS 3 SV06 spacecraft, but the average cost of each satellite in the 2008 purchase amounts to approximately $600 million in inflation-adjusted dollars.

The series of GPS 3 navigation satellites are designed for 15-year life spans, an improvement over the seven-and-a-half year and 12-year design lives of previous-generation GPS satellites. The GPS 3 satellites provide three times better accuracy and up to eight times improved anti-jamming capabilities over early GPS spacecraft, according to Lockheed Martin.

The GPS 3 satellites also introduce a new L-band civilian signal that is compatible with other international navigation satellite networks, such as Europe’s Galileo program. Combining signals from GPS, Galileo, and other navigation satellites can improve the precision of space-based position measurements.

The U.S. military uses GPS satellites for smart bombs and other precision-guided munitions. Troops rely on the network, which requires a minimum of 24 satellites for global coverage, to provide positioning data pole-to-pole.

Lockheed Martin won a follow-on contract from the military in 2018 to build up to 22 more upgraded GPS 3F satellites. The Space Force has placed firm orders with Lockheed Martin for the first 10 GPS 3F satellites, which will provide the military with new capabilities such as enhanced regional protection and even better anti-jamming capabilities, an upgraded search and rescue payload, and a laser retroreflector array to help provide more accurate data on each spacecraft’s location in orbit, information that will result in more precise position information for users on the ground.

L3Harris Technologies builds the navigation payloads for the GPS 3 satellites.

Civilians use the Global Positioning System on their smartphones, and airliners employ augmented GPS signals for precision landings and in-flight navigation. Banks use the timing signals from GPS satellites to time tag financial transactions.

“GPS has become a part of our critical national infrastructure,” Trotter said.

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Falcon Heavy hauls military satellites to high orbit after spectacular sunset launch

SpaceX’s Falcon Heavy rocket fires away from pad 39A at Kennedy Space Center in Florida with two U.S. Space Force satellites. Credit: SpaceX

A U.S. military data relay satellite and a rideshare platform with its own suite of payloads rocketed into a sunset sky over Florida’s Space Coast Sunday on a Falcon Heavy launcher, putting on a dazzling show for local residents and visitors as the rocket’s two side boosters returned to Cape Canaveral for landing.

The Falcon Heavy lifted off from pad 39A at Kennedy Space Center at 5:56 p.m. EST (2256 GMT) Sunday. The mission is the first of five Falcon Heavy rockets SpaceX plans to launch this year for the Space Force, NASA, and commercial customers.

Following a smooth countdown, the Falcon Heavy lit its 27 Merlin main engines and throttled up to full power, producing 5.1 million pounds of ground-shaking thrust as the 229-foot-tall (70-meter) rocket climbed away from the historic launch complex. The Falcon Heavy rolled onto a course due east from Kennedy Space Center, targeting an equator-hugging geosynchronous orbit more than 22,000 miles (nearly 36,000 kilometers) above Earth.

The rocket’s two side boosters, each with nine engines, shut down about two-and-a-half minutes into the flight and dropped away from the core stage of the Falcon Heavy. The side boosters fired thrusters to flip around into a tail first orientation, then they each ignited three of their engines to thrust back toward Cape Canaveral for landing.

The core stage, which flew at partial thrust for the first few minutes of the flight, throttled up its nine engines to full power for another 90 seconds before jettisoning to fall into the Atlantic Ocean. Then the upper stage of the Falcon Heavy ignited for the first of three burns to first place the mission’s two Space Force satellites into a preliminary parking orbit, then raise the altitude and reduce the inclination to reach a circular geosynchronous orbit.

The Falcon Heavy’s two side boosters, meanwhile, returned to Cape Canaveral for near-simultaneous landings. The boosters ignited their engines in a final braking maneuver before settling on Landing Zones 1 and 2 at Cape Canaveral Space Force Station.

The timing of the launch and landings, just minutes after sunset in Central Florida, created conditions for a dazzling display as the Falcon Heavy soared into space. The day’s last rays of sunlight illuminated the rocket’s exhaust plume as the engines powered the launcher into the sky, including the colorful interaction between the plumes from the core stage and the two side boosters firing at the edge of space.

The Space Force confirmed the successful outcome of the semi-classified mission, designated USSF-67, about six hours after liftoff, the time it took for the Falcon Heavy’s upper stage to deploy the two satellites into the targeted high-altitude geosynchronous orbit, where the payloads will orbit in lock-step with Earth’s rotation.

“We had another fantastic launch today on a Falcon Heavy, just two months after our first National Security Space Launch mission using this launch system, and while the launch itself was impressive, I am most proud of the fact that we placed important capabilities into space that help our nation stay ahead of very real and growing threats,”  said Maj. Gen. Stephen Purdy, program executive officer for assured access to space at the Space Force’s Space Systems Command.

“We’re certainly on a roll with 96 consecutive successful national security space launches, and the takeaway is that we’ve really got a spectacular team working together on our most challenging launch profiles to ensure our mission partners get on orbit with confidence,” Purdy said in a statement.

The Falcon Heavy held the distinction as the most powerful operational rocket in the world until November, when NASA’s Space Launch System moon rocket took off on its inaugural flight. The Falcon Heavy, still the world’s most powerful commercial rocket in service, measures nearly 40 feet (12.2 meters) wide with three Falcon rocket boosters connected together.

SpaceX’s Starship and Super Heavy rocket is on the verge of becoming the most powerful rocket ever to fly, when it takes off from Texas on its first orbital test flight in the coming weeks or months.

Exhaust from 27 Merlin 1D engines fill the frame in this view from SpaceX. The Falcon Heavy rocket took off from Kennedy Space Center at 5:56 p.m. EST (2256 GMT) on Jan. 15. Credit: SpaceX

The two satellites on the USSF-67 mission launched on missions supporting military communications and technology demonstration experiments.

The Space Force’s CBAS 2 satellite rode in the upper position of the dual-payload stack. CBAS 2 (pronounced “sea bass”) is the military’s second Continuous Broadcast Augmenting SATCOM mission, following the first CBAS satellite which launched on a United Launch Alliance Atlas 5 rocket in April 2018.

According to the Space Force’s Space Systems Command, CBAS 2 “is a satellite destined for geosynchronous orbit to provide communications relay capabilities in support of our senior leaders and combatant commanders.”

A Space Force spokesperson said they could not release the identity of the manufacturer of the CBAS 2 satellite. Officials did not disclose any more details about the spacecraft’s mission.

“The mission of CBAS 2 is to augment existing military satellite communication capabilities and continuously broadcast military data through space-based satellite relay links,” Space Systems Command said.

The other payload on the USSF-67 mission was a ring-shaped spacecraft hosting multiple military tech demo experiments. Northrop Grumman developed the spacecraft, called the Long Duration Propulsive ESPA, or LDPE, to accommodate small military payloads onto a single satellite platform, providing “an affordable path to space for both hosted and separable payloads,” said the Space Force’s Space Systems Command.

“This bus carries hardware for five independent missions, eliminating the need for each mission to wait for a future launch opportunity,” Northrop Grumman said. Northrop Grumman assembled the spacecraft at its Gilbert, Arizona, satellite production facility. All five of the LDPE 3A payloads will remain attached to the spacecraft throughout their missions, a Space Force spokesperson told Spaceflight Now.

The LDPE 3A spacecraft launched on the the Falcon Heavy rocket includes two “demonstration prototype” payloads from Space Systems Command, the military said. One of them, called Catcher, comes from the Aerospace Corporation. Catcher is a prototype sensor to provide “local space domain awareness insights,” Aerospace Corporation said. It is based on a previous Aerospace Corporation-developed instrument called Energetic Charged Particle-Lite, or ECP-Lite, to demonstrate new miniaturized technology that can diagnose adverse effects of radiation, charged particles, and other space weather events on spacecraft in orbit.

The other Space Systems Command payload on the LDPE 3A spacecraft is called WASSAT. According to Sandia National Laboratories, WASSAT is a prototype wide-area sensor consisting of four cameras to search for and track other spacecraft and space debris in geosynchronous orbit, where communications, missile detection, intelligence-gathering, and weather monitoring satellites operate.

The military’s Space Rapid Capabilities Office has three payloads on the LDPE 3A spacecraft, including two operational prototypes for space situational awareness missions, and one “operational prototype crypto/interface encryption payload providing secure space-to-ground communications capability,” Space Systems Command said in a statement.

The Space Force launched two previous LDPE missions, one on an Atlas 5 rocket in 2021 and another on the Falcon Heavy’s USSF-44 mission Nov. 1. Northrop Grumman developed the maneuverable LDPE spacecraft by modifying a ring-like structure often used to connect small satellites to their launchers, adding solar panels, computers, rocket thrusters and instrumentation to the adapter.

SpaceX debuted the Falcon Heavy rocket on a test flight Feb. 6, 2018, that sent a red Tesla Roadster into interplanetary space. Two Falcon Heavy missions flew April 11, 2019, and June 25, 2019. Those missions carried into orbit a commercial Arabsat communications satellite and 24 military and NASA spacecraft, respectively.

The next Falcon Heavy launch didn’t take off until three-and-a-half years later, following delays in spacecraft assigned to fly on SpaceX’s heavy-lifter. The USSF-44 mission Nov. 1 was the first SpaceX launch to deploy payloads directly into geosynchronous orbit. The six-hour mission profile required SpaceX to make some changes to the Falcon Heavy rocket, including the addition of gray paint on the outside of the upper stage’s kerosene tank to help ensure the fuel did not freeze as the rocket coasted in the cold environment of space.

The same strip of gray paint was on the upper stage of the Falcon Heavy rocket for the USSF-67 mission.

The USSF-67 mission was SpaceX’s first mission awarded by the Pentagon’s National Security Space Launch Phase 2 contract. ULA and SpaceX won rights in 2020 to launch the military’s most expensive and critical space missions over a period of five years. The Space Force awarded SpaceX a $316 million contract to launch the USSF-67 mission.

Artist’s concept of a Long Duration Propulsive ESPA spacecraft, based on Northrop Grumman’s ESPAStar satellite bus. Credit: Northrop Grumman

The Falcon Heavy rocket on the USSF-67 mission reused the two side boosters from the USSF-44 launch in November. Both boosters will be making their second flights to space, while the rocket’s center core was brand new. SpaceX did not attempt to recover the core stage on Sunday’s launch.

“The efficiencies garnered from reusability benefit all customers, adding flexibility to a dynamic launch queue and cost savings,” Space Systems Command said.

SpaceX and the Space Force have agreed to refurbish and reuse the side boosters from the USSF-44 and USSF-67 missions for the next Falcon Heavy launch for the military. That launch, named USSF-52, is scheduled to take off no earlier than April.

SpaceX plans to launch its next mission Wednesday from Cape Canaveral. A Falcon 9 rocket will launch on another satellite delivery flight for the Space Force, this time with a GPS navigation spacecraft.

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Monday 16 January 2023

Comment on Falcon Heavy Launches USSF-67, Readies for Busy 2023 by Falcon Heavy Launches USSF-67, Readies for Busy 2023 | taktik(z) GDI (Government Defense Infrastructure)

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Sunday 15 January 2023

Comment on Record-Tying Falcon 9 Kicks Off 2023, Others Wait in Wings by Falcon Heavy Launches USSF-67, Readies for Busy 2023 - AmericaSpace

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Falcon Heavy Launches USSF-67, Readies for Busy 2023

In the first of up to five flights planned for 2023, @SpaceX's mighty Falcon Heavy has successfully launched USSF-67 for @SpaceForceDoD.

The post Falcon Heavy Launches USSF-67, Readies for Busy 2023 first appeared on AmericaSpace.



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Saturday 14 January 2023

Live coverage: SpaceX’s Falcon Heavy set for twilight launch Saturday

Live coverage of the countdown and launch of a SpaceX Falcon Heavy rocket from Kennedy Space Center on the USSF-67 mission for the U.S. Space Force. The mission will deploy two main payloads into geosynchronous orbit, and the Falcon Heavy’s two side boosters will return to Cape Canaveral Space Force Station for landing. Text updates will appear automatically below. Follow us on Twitter.

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Northrop Grumman heralds converted adapter rings as rideshare solution for military payloads

Artist’s concept of a Long Duration Propulsive ESPA spacecraft, based on Northrop Grumman’s ESPAStar satellite bus. Credit: Northrop Grumman

Northrop Grumman and the U.S. Space Force say converted launch vehicle payload adapter rings, upgraded with power and propulsion to create full-fledged satellites, are proving effective in more rapidly delivering military instruments and sensors to orbit. The fifth such mission is set to launch on a SpaceX Falcon Heavy rocket Saturday.

The converted payload adapter rings, called the ESPAStar bus by Northrop Grumman, can host as many as six payloads on a single spacecraft. The ring comes with standardized ports to connect sensors, experiments, and satellites that can either remain attached to the host spacecraft, or deploy into orbit to start work on independent missions.

The ESPAStar spacecraft platform forms the basis for the Space Force’s Long Duration Propulsive ESPA, or LDPE, missions, the third of which is set to launch one the Space Force’s USSF-67 mission Saturday from Florida aboard a SpaceX Falcon Heavy rocket. The military has also launched two other similar ESPAStar missions: EAGLE in 2018 and the USSF 12 Ring spacecraft in July 2022.

ESPA stand for EELV Secondary Payload Adapter, which was developed in the late 1990s and early 2000s to accommodate small hitchhiker satellites on a ring-shaped structure under primary payloads on the military’s Evolved Expendable Launch Vehicle Program. The ESPA ring has evolved into several new designs, and found use as a platform for NASA’s LCROSS mission in 2009 that intentionally crashed into the moon in search of water ice.

Spaceflight Inc., a rideshare launch provider, developed a series of commercial propulsive space tugs called Sherpa using a version of the ESPA ring. The Sherpa missions have focused on missions in low Earth orbit.

Northrop Grumman’s ESPAStar has found a niche as a platform for national security payloads in geostationary orbit, more than 22,000 miles (nearly 36,000 kilometers) over the equator. The USSF-67 mission launching on SpaceX’s Falcon Heavy rocket Saturday will deploy the LDPE 3A spacecraft, based on the ESPAStar design, on a dual-payload mission with a military communications satellite called CBAS 2 (Continuous Broadcast Augmenting SATCOM 2).

Artist’s concept of an ESPAStar satellite bus deploying from a rocket’s upper stage in orbit. Credit: Northrop Grumman

“LDPE provides a ‘freight train to space’ for experiments and prototypes in geosynchronous Earth orbit that can be manifested on any National Security Space Launch mission with available mass margin,” said Col. Joseph Roth, Space Systems Command’s director of the Innovation & Prototyping Delta. “The LDPE’s modular bus design and six standard interfaces provides theperfect platform to host a wide variety of payloads across many mission areas.”

Troy Brashear, Northrop Grumman’s vice president of national security systems, said the ESPAStar design provides the military with “flexibility and agility” in assigning and delivering national security payloads to orbit.

“You can put a satellite on it that can then deploy once in orbit,” Brashear said in an interview with Spaceflight Now. “You can put a payload on it that stays with the ring forever and does its mission from the ring. And you can get six on a ring, so you can do any sort of combination of experimentation, tests, any sort of mission risk reduction activities, all in one shot.

“This ‘freight train to space’ is able to take advantage of excess space in the fairing like we are on USSF 67 here soon, and then to be able to continually do that.”

The Space Force has launched two previous LDPE missions, one on an Atlas 5 rocket in 2021 and another on the Falcon Heavy’s USSF-44 mission Nov. 1. Northrop Grumman developed the maneuverable LDPE spacecraft by upgrading the ESPA ring structure with solar panels, computers, hydrazine-fueled rocket thrusters, and command and control instrumentation.

Each port on the ESPAStar satellite platform can hold a payload of up to 705 pounds (320 kilograms), according to Northrop Grumman. The satellite is designed for missions lasting multiple years.

“The way we all grew up was you had a mission, you build a satellite, and then you’d have to find a ride into space,” Brashear said. “This ESPAStar product line kind of helps cut down that timeline of getting the ride to space. SSC (Space Systems Command) buys the ring, and they will coordinate who gets to ride on it. You can simply get your ride to space and fit in the fairing with somebody else.”

The ring’s six payload ports have non-proprietary power and mechanical connections, allowing the Space Force and Northrop Grumman to swap out a payload until the final phase of a launch campaign at the launch site. That’s valuable to the Space Force, which might need to respond to changing conditions on the battlefield.

“In a high-threat environment, you may be planning for ‘Mission X’ for the last six or seven months to get up into orbit, and then something in Ukraine happens, or something happens in the Pacific region, and you want to change out a payload or a satellite,” Brashear said. “We can provide the flexibility to do that within weeks notice and within a short time before launch.”

Two ESPAStar spacecraft during integration at a Northrop Grumman satellite manufacturing facility. Credit: Northrop Grumman

The Defense Department awarded Northrop Grumman the $42.5 million manufacturing and integration contract for the LDPE 3A mission in 2019.

There are five payloads on the LDPE 3A spacecraft. All five of the LDPE 3A payloads will remain attached to the spacecraft throughout their missions, a Space Force spokesperson told Spaceflight Now.

The LDPE 3A spacecraft on the Falcon Heavy rocket launching this weekend includes two “demonstration prototype” payloads from Space Systems Command, the military said. One of them, called Catcher, comes from the Aerospace Corporation. Catcher is a prototype sensor to provide “local space domain awareness insights,” Aerospace Corporation said. It is based on a previous Aerospace Corporation-developed instrument called Energetic Charged Particle-Lite, or ECP-Lite, to demonstrate new miniaturized technology that can diagnose adverse effects of radiation, charged particles, and other space weather events on spacecraft in orbit.

The other Space Systems Command payload on the LDPE 3A spacecraft is called WASSAT. According to Sandia National Laboratories, WASSAT is a prototype wide-area sensor consisting of four cameras to search for and track other spacecraft and space debris in geosynchronous orbit, where communications, missile detection, intelligence-gathering, and weather monitoring satellites operate.

The military’s Space Rapid Capabilities Office has three payloads on the LDPE 3A spacecraft, including two operational prototypes for space situational awareness missions, and one “operational prototype crypto/interface encryption payload providing secure space-to-ground communications capability,” Space Systems Command said in a statement.

The Space Force awarded Northrop Grumman a $22 million contract last year for another ESPAStar mission, called ROOSTER, or the Rapid On-Orbit Space Technology Evaluation Ring, for delivery in 2026. The ROOSTER mission is similar to the LDPE missions, and will be capable of hosting multiple payloads, including an in-orbit satellite refueling experiment, according to the Space Force.

“After that we are looking at expanding this ESPAStar product line to other customers,” Brashear said. “I think there are opportunities here on the commercial front just because of the low price point, (and) the ability to multi-manifest capability on there and do this rideshare. I think it opens up a lot of opportunity commercially and internationally as well.”

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