Cygnus NG-11 (CRS-11) - Antares 230 - MARS LP-0A - 17.04.2019, 20:46 UTC

Автор tnt22, 09.02.2019 03:14:24

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tnt22

Есть швартовка! Начался процесс стягивания

tnt22

#222
1-й этап стягивания завершен

tnt22

Финальный этап стягивания завершен! МКС над Индийским океаном...

tnt22


tnt22

ЦитироватьChris B - NSF‏ @NASASpaceflight 04:33 PDT - 19 апр. 2019 г.

First and Second Stage capture complete. NG-11 Cygnus is berthed to the ISS Node 1.

tnt22

https://blogs.nasa.gov/spacestation/2019/04/19/cygnus-cargo-craft-attached-to-station-until-july/
ЦитироватьCygnus Cargo Craft Attached to Station Until July

Mark Garcia
Posted Apr 19, 2019 at 7:34 am


April 19, 2019: International Space Station Configuration. Five spaceships are docked at the space station including Northrop Grumman's Cygnus space freighter and Russia's Progress 71 and 72 resupply ships and the Soyuz MS-11 and MS-12 crew ships.

After its capture this morning at 5:28 a.m. EDT, the Northrop Grumman Cygnus spacecraft was bolted into place on the International Space Station's Earth-facing port of the Unity module at 7:31 a.m. At the time of installation, Cygnus was flying 255 miles above the Indian Ocean just south of Singapore.

Cygnus will remain at the space station until July 23, when the spacecraft will depart the station, deploy NanoRacks customer CubeSats, then have an extended mission of nine months before it will dispose of several tons of trash during a fiery reentry into Earth's atmosphere.

The spacecraft's arrival brings close to 7,600 pounds of research and supplies to space station. Highlights of NASA-sponsored research to advance exploration goals and enable future missions to the Moon and Mars include:
Спойлер
Models for growing increasingly complex materials

Advanced Colloids Experiment-Temperature-10 (ACE-T-10) will test gels in a microgravity environment. This research could aid in the development of increasingly complex materials that may serve as the building blocks for a range of applications on Earth including foods, drugs, and electronic devices. The process also may provide an efficient method to build new materials and equipment in space.

Better life science research in a few drops

Although the space station is well equipped for health and life sciences research, the equipment available for cellular and molecular biology still is limited compared to capabilities found in laboratories on Earth. To address this limitation, CSA designed Bio-Analyzer, a new tool the size of a video game console that astronauts on station easily can use to test body fluids such as blood, saliva, and urine, with just a few drops. It returns key analyses, such as blood cell counts, in just two to three hours, eliminating the need to freeze and store samples.

Analyzing aging of the arteries in astronauts

The Vascular Aging investigation uses ultrasounds, blood samples, oral glucose tolerance tests, and wearable sensors to study aging-like changes that occur in many astronauts during their stay on the space station. It's one of three Canadian experiments exploring the effects of weightlessness on the blood vessels and heart, and the links between these effects and bone health, blood biomarkers, insulin resistance, and radiation exposure. Increased understanding of these mechanisms can be used to address vascular aging in both astronauts and the aging Earth population.

Testing immune response in space

Spaceflight is known to have a dramatic influence on an astronaut's immune response, but there is little research on its effect following an actual challenge to the body's immune system. The rodent immune system closely parallels that of humans, and Rodent Research-12: Tetanus Antibody Response by B cells in Space (TARBIS) will examine the effects of spaceflight on the function of antibody production and immune memory. This investigation aims to advance the development of measures to counter these effects and help maintain crew health during future long-duration space missions. On Earth, it could advance research to improve the effectiveness of vaccines and therapies for treating diseases and cancers.

Big buzz for new robot

A fleet of small robots is set to take on big jobs aboard the space station. Building on the success of SPHERES, NASA will test Astrobee, a robotic system comprised of three cube-shaped robots and a docking station for recharging; the first two are aboard Cygnus. The free-flying robots use electric fans for propulsion and cameras and sensors help them navigate their surroundings. The robots also have an arm to grasp station handrails or grab and hold items. Astrobee can operate in automated mode or under remote control from the ground as it assists with routine chores on station, and requires no supervision from the crew. This has the potential to free up astronauts to conduct more research.
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tnt22

ЦитироватьNG-11: SS Roger Chaffee Cygnus berthing

SciNews

Опубликовано: 19 апр. 2019 г.
(3:25)

tnt22

ЦитироватьNorthrop Grumman‏Подлинная учетная запись @northropgrumman 13 мин. назад

The S.S. Roger Chaffee #Cygnus successfully completed its rendezvous and berthing maneuvers with the @Space_Station this morning, with final installation occurring at 7:31 a.m. EDT #NorthropGrumman

tnt22

https://www.interfax.ru/world/658720
Цитировать14:38, 19 апреля 2019
Американский грузовик Cygnus доставил на МКС еду и оборудование

Москва. 19 апреля. INTERFAX.RU - Выведенный на орбиту Земли американский грузовой космический корабль Cygnus в пятницу успешно состыковался с Международной космической станцией (МКС), сообщили в НАСА.

По данным Центра управления полетами НАСА в Хьюстоне, операция по стыковке Cygnus с американским сегментом станции - модулем Unity была завершена в 14:31 по московскому времени. Перед этим сблизившийся с МКС корабль в 12:28 по московскому времени был захвачен с помощью 17-метрового манипулятора Canadarm-2, которым управляла американский астронавт Энн Макклейн. Последующая подводка "грузовика" дистанционной рукой-манипулятором к МКС и сам процесс стыковки осуществлялся по командам с Земли.
Спойлер
Cygnus доставил на МКС около 3,5 тонн груза, в том числе продовольствие, а также оборудование и материалы для проведения десятков научных исследований.

Как сообщалось, грузовой корабль был выведен на орбиту ракетой-носителем Antares, стартовавшей в среду в 23:46 по Москве с космодрома Уоллопс, который размещается на одноименном острове у атлантического побережья американского штата Вирджиния.

Запуск прошел по коммерческому контракту НАСА с корпорацией Northrop Grumman, которой принадлежит ракета-носитель и автоматический грузовой космический корабль.

Это уже 11-й полет американского космического грузовика данного типа к МКС. Был также еще один неудачный запуск в 2014 году, когда "грузовик" не долетел до станции вследствие аварии ракеты-носителя Antares. Первый запуск Cygnus состоялся 18 сентября 2013 года.

Корабль состоит из двух модулей цилиндрической формы: оборудованного солнечными батареями служебного модуля и герметичного грузового модуля.

Cygnus будет находиться в составе МКС до 23 июля. Он заберет с собой со станции мусор и отходы. После расстыковки "грузовик" выведет на орбиту малые спутники.

Cygnus продолжит автономный полет до декабря, когда он будет сведен с орбиты и прекратит свое существование в акватории Тихого океана. Большая его часть сгорит в плотных слоях атмосферы Земли. В общей сложности полет "грузовика" продлится рекордные для этого типа кораблей восемь месяцев.

Экипаж МКС состоит из российских космонавтов Олега Кононенко и Алексея Овчинина, американских астронавтов Энн Макклейн, Кристины Кох и Ника Хейга и канадского астронавта Давида Сен-Жака.
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tnt22

ЦитироватьChristina H Koch‏Подлинная учетная запись @Astro_Christina 4 мин. назад

Cygnus captured! Congratulations to the team and @AstroAnnimal for a job well done. Next step, mission control operates the arm to berth Cygnus to the docking port.



tnt22

https://news.northropgrumman.com/news/releases/northrop-grummans-cygnus-spacecraft-successfully-completes-rendezvous-and-berthing-with-international-space-station-6754331
ЦитироватьNorthrop Grumman's Cygnus Spacecraft Successfully Completes Rendezvous and Berthing with International Space Station

"S.S. Roger Chaffee" delivers approximately 7,600 pounds of cargo to the orbiting laboratory
April 19, 2019

Dulles, Va. – April 19, 2019 – Northrop Grumman Corporation (NYSE: NOC)  today announced that the "S.S. Roger Chaffee" Cygnus™ spacecraft successfully completed its rendezvous and berthing maneuvers with the International Space Station earlier this morning. The mission marks the company's 11th successful berthing with the orbiting laboratory.


Northrop Grumman's Cygnus spacecraft approaches the International Space Station for a robotic capture. Credit: NASA TV
Cygnus launched aboard a Northrop Grumman Antares™ rocket on April 17, 2019 from the Mid-Atlantic Regional Spaceport Pad 0A on Wallops Island, Virginia. As the spacecraft approached the space station, Cygnus executed a series of thruster burns to raise its orbit. Once the spacecraft was in close range, crew members on board the space station grappled the spacecraft with the station's robotic arm at 5:30 a.m. EDT. Cygnus was then guided to its berthing port on the nadir side of the station's Unity module and officially installed on to the space station at 7:31 a.m. EDT.
Спойлер
"Our arrival at the space station as the 'S.S. Roger Chaffee' marks a proud moment for the NASA and Northrop Grumman teams," said Frank DeMauro, vice president and general manager, space systems, Northrop Grumman. "As we deliver critical supplies and cargo to the astronauts aboard the space station, we are inspired by Lt. Commander Chaffee's courage and commitment to the human exploration of space. The Cygnus spacecraft represents his planned journey to space in memory of those who took great risks to advance our nation's space program."

Astronaut Roger Chaffee and his crewmates, Virgil "Gus" Grissom and Ed White II, all died in a tragic accident after a fire occurred in the space capsule during a simulation of the Apollo 1 launch in 1967. While his crewmates had flown to space on previous missions, Chaffee had not yet traveled to space. The naming of Cygnus in honor of his memory recognizes his legacy and valued contributions to human spaceflight.

Cygnus arrived at the space station with nearly 7,600 pounds (approximately 3,450 kilograms) of cargo, supplies and scientific experiments. The crew is now scheduled to open Cygnus' hatch and make initial ingress into the cargo module to begin unloading the pressurized cargo. Cygnus will remain docked at the station for approximately three months before departing on secondary missions.

Once Cygnus departs the station, the spacecraft will begin a secondary mission to deploy CubeSats for two commercial customers. Cygnus will reposition to deploy three CubeSats using a NanoRacks deployer in the Company's seventh commercial mission. The Slingshot CubeSat Deployer system is also on board and marking its second mission on a Cygnus spacecraft. Slingshot is a flexible platform that can fly hosted payloads and CubeSats. The system is scheduled to be installed by astronauts while Cygnus is docked to the station in preparation for another round of CubeSat deployments during the next phase of its mission.

After the CubeSats are deployed, Cygnus will remain in orbit for an extended duration mission, an achievement marking a "first" for the spacecraft as it demonstrates capabilities beyond cargo supply and disposal. This newest innovation showcases Cygnus as a future testbed for various types of hosted payload missions. Upon completion of its secondary missions, Cygnus will perform a safe, destructive reentry into Earth's atmosphere over the Pacific Ocean.
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tnt22

ЦитироватьDavid Saint-Jacques‏Подлинная учетная запись @Astro_DavidS 8 мин. назад

Canadarm2 berthing the Cygnus cargo spacecraft after capture this morning!
//
Canadarm2 amarre le vaisseau-cargo Cygnus après sa capture ce matin!


tnt22

ЦитироватьNASA ScienceCasts: A Chip Off the Old Block

ScienceAtNASA

Опубликовано: 18 апр. 2019 г.

Living 3D versions of human organs called Tissue Chips are being sent to the International Space Station to be studied in microgravity.
(4:06)

tnt22

ЦитироватьSpace to Ground: Marathon Mission: 04/19/2019

NASA Johnson

Опубликовано: 19 апр. 2019 г.
(3:00)

tnt22

https://spaceflightnow.com/2019/04/19/cygnus-supply-ship-delivers-3-8-ton-cargo-load-to-international-space-station/
ЦитироватьCygnus supply ship delivers 3.8-ton cargo load to International Space Station
April 19, 2019Stephen Clark


The Cygnus spacecraft, christened the S.S. Roger Chaffee, is in the firm grasp of the space station's Canadian-built robotic arm Friday after arrival. Credit: David Saint-Jacques/CSA/NASA

NASA flight engineer Anne McClain grappled Northrop Grumman's Cygnus supply ship with the International Space Station's robotic arm Friday, marking the automated cargo freighter's arrival after an abbreviated day-and-a-half-long journey fr om a launch pad in Virginia with nearly 7,600 pounds of experiments, food and provisions.

Commanding the Canadian-built robot arm fr om a control station in the cupola module, McClain guided the arm's end effector over a grapple pin on the rear end of the Cygnus spaceship as the cargo craft held steady roughly 30 feet (10 meters) below the complex. Mission control in Houston declared a successful capture of Cygnus at 5:28 a.m. EDT (0928 GMT) as the station sailed 258 miles (415 kilometers) over northeastern France.

Northrop Grumman christened the Cygnus the S.S. Roger Chaffee, after the late astronaut who perished in the Apollo 1 fire in 1967 alongside Gus Grissom and Ed White.

"It's to have the S.S. Roger Chaffee officially on-board, and we look forward to working with the over 7,000 pounds of cargo for the next few months," McClain radioed moments after the capture of Cygnus.

Engineers on the ground later took over the arm, which launched aboard the space shuttle Endeavour 19 years ago Friday, to place Cygnus on a berthing port on the nadir, or Earth-facing side of the station's Unity module, where a series of latches and bolts closed to create a firm connection at 7:31 a.m. EDT (1131 GMT).

Friday's arrival marked the end of a shorter-than-usual rendezvous profile for the Cygnus spacecraft following its launch fr om Wallops Island, Virginia, on Wednesday aboard an Antares rocket. Northrop Grumman modified the Cygnus flight plan to include a pair of automated altitude boost burns shortly after separation fr om the Antares launcher, giving the supply ship a head start on the way to the space station.
Спойлер
The change is one of several new upgrades and features on this Cygnus mission, the 11th and last resupply flight by Northrop Grumman under the company's $2.89 billion cargo transportation contract with NASA signed in 2008. Northrop Grumman has a follow-on contract with NASA for at least six additional Cygnus missions beginning in October.

Under the second contract, Northrop Grumman will provide expanded cargo capacity to NASA, including the ability to load time-sensitive equipment into the ship's pressurized module less than 24 hours before launch, and the revamped rendezvous profile to get to the station faster. Officials rehearsed the new procedures on this mission, designated NG-11.

On the next Cygnus mission, the Antares rocket's main engines will fly at higher throttle settings, allowing the mission to carry up to 10 percent more cargo.

The station astronauts planned to open hatches leading to the Cygnus spacecraft's internal cabin later Friday to begin unpacking the equipment inside, which includes a carrier containing 40 mice for researchers to study their immune systems in space by examining their bodies' response to tetanus vaccinations. The rodents and their habitat were loaded into the Cygnus supply ship the night before launch, the first time mice have rode a Cygnus mission to the space station.


Engineers load the final cargo into the Cygnus spacecraft Tuesday night, the day before launch from Wallops Island, Virginia. Credit: NASA/Bill Ingalls

Two remotely-operated Astrobee robots developed at NASA's Ames Research Center in California were also delivered to the space station Friday. The battery-powered cube-shaped robots will maneuver through the space station's internal volume to perform inspections and assist crew members in their work, replacing NASA's three aging SPHERES robots that have been on the station since 2006.

"We're replacing them with the Astrobee, so we've built in a lot of features in the Astrobee to actually facilitate research," said Maria Bualat, Astrobee's project manager and deputy lead of the intelligent robotics group at Ames. "One is that there are multiple payload bay ... So we have these open areas on the robot wh ere you can plug in, both at the top and bottom, payloads very easily."

In the last few years, the SPHERES robots have conducted experiments investigating sloshing of liquids inside space vehicles and the robotic capture of space debris. Like SPHERES, the Astrobee robots will allow researchers to demonstrate new capabilities in a controlled pressurized environment inside the space station.

"It can be used for science and technology development," Bualat said. "So it can carry other payloads that we want to test in microgravity but it can also be used as a tool by ground controllers. So we can use the camera to do video surveys or to observe crew activities, so that the ground can be actually ready to answer any questions the crew might have in a complex activity, and they also don't have to take crew time to move the camera. So if the camera happens to be placed badly ... they can actually just fly the camera to another location.

"The other thing we can do is we can carry other instruments," she said. "We can carry sensors for environmental understanding, so for instance CO2 sensors to understand the concentrations, we can carry radiation sensors, we also can carry RFID readers that can do inventories and find lost tools or lost equipment that we're not sure wh ere it is. We can actually fly the robot around and look for equipment needed for other experiments. In that way, we don't have to have the crew looking for a needed piece of equipment."

The Astrobee robot will use vision-based navigation — comparing what it sees to a pre-loaded map of the station — to know wh ere it is on the space station, according to Bualat. A propulsion module using air intakes and nozzles will provide the impulse needed to fly around the space station, and a docking port is available to connect to each robot for battery charging.


Roberto Carlino, electronics and integration engineer at NASA's Ames Research Center in Silicon Valley conducts acoustics testing in an anechoic chamber at NASA's Johnson Space Center, Houston. The test measures the noise level of Astrobee when the robot is docked and when the robot activates its fan-based propulsion system to undock. Credits: NASA's Johnson Space Center/Robert Markowitz

"It pulls air in through a circular central fan, which lightly pressurizes the propulsion module, and then there are six nozzles on each side — so 12 total — that open and close, and that is how the robot moves around station," Bualat said.

A third Astrobee robot is expected fly on a SpaceX cargo mission to the station later this year.

Other hardware carried by the Cygnus spacecraft includes a device designed to manufacture optical fibers in orbit. The Space Fibers facility, developed by a San Diego company named FOMS, will help engineers determine the effectiveness and quality of optical fibers manufactured in microgravity.

FOMS is one of two companies, along with Made in Space, seeking to manufacture optical fibers on the space station. Officials from both companies believe a blend of materials called ZBLAN — which stands for zirconium, barium, lanthanum, sodium and aluminum — can be assembled into optical fibers in microgravity with higher quality than traditional silica-based fibers used on Earth.

"The immediate opportunities for these fibers are in remote sensing and defense applications, but there is a wide market opportunity for telecom applications as well," said Dmitry Starodubov, chief scientist for the Space Fibers facility from FOMS Inc.

Eleven CubeSats developed by students and startup companies also rode to the station inside the Cygnus cargo module. The astronauts will take the CubeSats to the station's Japanese Kibo lab module, wh ere they will be installed on a deployer for transfer through Kibo's airlock and release into orbit from the robot arm.

The CubeSats launched inside Cygnus for deployment from the space station include:
    [/li]
  • EntrySat was developed by the ISAE-SUPAERO aeronautics and space institute in France with support from CNES, the French space agency. The 3U CubeSat, about the size of a loaf of bread, was built by French students and will use position, pressure, temperature and heat flux sensors to study re-entry of orbital debris, according to CNES.
  • IOD-1 GEMS is the first in-orbit demonstration 3U CubeSat for a Global Environmental Monitoring System constellation planned by Orbital Micro Systems, a Colorado-based company with a major data center in Scotland. The IOD-1 GEMS nanosatellite is funded by Innovate UK, and will gather and transmit atmospheric observation data. It is the first of Orbital Micro Systems' planned fleet of 48 CubeSats to collect global microwave radiation data for weather forecasting.
  • KRAKSat, developed by students at the University of Science and Technology and Jagiellonian University in Poland, will test the viability of a ferrofluid flywheel to control the nanosatellite's orientation in space. "A torus, surrounded by eight electromagnets, and placed inside a ferrofluid is a main part of our experiment," the KRAKSat team wrote in a mission summary. "By changing magnetic field, we accelerate the ferrofluid, causing its spinning motion. The result of this movement should be the rotation of the satellite in the opposite direction."
  • Swiatowid is a technology demonstration satellite developed by SatRevolution S.A., a Polish startup company. The 2U CubeSat carries a telescope and an "industry-quality" camera sensor to demonstrate high-resolution imaging from low Earth orbit using small satellites. Swiatowid is designed to collect imagery with a ground sample distance of 3 meters, or about 10 feet, and the team aims to improve that to 1 meter (3 feet) on future missions.
  • The Virginia CubeSat Constellation mission consists of three 1U CubeSats, each a bit larger than a Rubik's cube, developed by Virginia undergraduate students at the University of Virginia, Old Dominion University, Virginia Tech and Hampton University. Named Aeternitas, Cetes and Libertas, the CubeSats will measure the orbital decay of a constellation of small satellites and develops a database of atmospheric drag and the variability of atmospheric properties, according to NASA.
  • UguisuRaavana 1, and NepaliSat 1 are 1U CubeSats developed by student and research teams in Japan, Sri Lanka and Nepal under the auspices of the international Birds program.
  • SpooQy 1, developed at the National University of Singapore, will demonstrate quantum entanglement with a CubeSat for the first time.

The Swiatowid spacecraft. Credit: SatRevolution S.A.

The Cygnus spacecraft also delivered the equivalent of more than 800 meals to the space station, according to NASA. The meals include smoked turkey, pork chops, shrimp cocktail, and desserts such as cherry cobbler, chocolate pudding and lemon cake.

The S.S. Roger Chaffee's pressurized cargo module, built by Thales Alenia Space in Italy, is packed with 6,971 pounds (3,162 kilograms) of supplies and experiments. Here's a breakdown of the cargo manifest provided by NASA:
    [/li]
  • 3,459 pounds (1,569 kilograms) of science investigations
  • 2,065 pounds (936 kilograms) of crew supplies
  • 1,384 pounds (628 kilograms) of vehicle hardware
  • 77 pounds (35 kilograms) of Northrop Grumman hardware
  • 53 pounds (24 kilograms) of spacewalk equipment
  • 10 pounds (5 kilograms) of computer resources
More than 500 pounds of additional payload hardware is affixed outside the Cygnus spacecraft to support CubeSat deployments after departing the space station, bringing the total payload complement on NG-11 to 7,575 pounds (3,436 kilograms).

The Cygnus supply ship is expected to remain berthed at the International Space Station's Unity module until July 23, when it will be released by the station's robotic arm with several tons of trash for disposal.

Northrop Grumman's ground team in Dulles, Virginia, will send the Cygnus spacecraft into a higher orbit for deployment of several more CubeSats from a NanoRacks module and a Slingshot mechanism.

One of the CubeSats to be released after Cygnus' departure from the space station is named Seeker. Developed at NASA's Johnson Space Center in Houston, with a camera system provided by engineers at the University of Texas at Austin, Seeker will perform an inspection of the Cygnus spacecraft to demonstrate in-space navigation and imaging capabilities that could be used on future missions in deep space.

Two AeroCube 10 nanosatellites from the Aerospace Corp. will also separate from Cygnus to conduct experiments in satellite-to-satellite pointing, evaluate the use of a water-based stream thruster, and release 29 tiny atmospheric probes to measure air density in low Earth orbit.

Northrop Grumman plans several months of long-duration spaceflight experiments using the Cygnus spacecraft after release of the CubeSats. Four miniaturized control moment gyroscopes are flying on the cargo freighter for the first time, and engineers will assess their performance in controlling the spacecraft's pointing without consuming rocket fuel.

Ground teams also want to evaluate how the Cygnus spacecraft's avionics function on a long-duration mission, and Northrop Grumman plans to demonstrate dual Cygnus operations for the first time after the launch of the company's next resupply mission later this year.

Like all previous Cygnus missions, the spacecraft will burn up during re-entry over the Pacific Ocean once the extended mission demonstration is complete.
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tnt22

Официальная запись трансляции захвата и пристыковки Cygnus NG-11 к МКС

ЦитироватьCygnus CRS 11 Rendezvous and Capture - April 19, 2019

NASA Video

Опубликовано: 19 апр. 2019 г.
(1:41:58)

ЦитироватьCygnus CRS 11 Installation to the ISS - April 19, 2019

NASA Video

Опубликовано: 19 апр. 2019 г.
(42:11)

tnt22

ЦитироватьJonathan McDowell‏Подлинная учетная запись @planet4589 4 мин. назад

Still no Antares rocket stage TLEs. I'm worried it may have reentered already without being cataloged, which would be annoying.

К.А.

Поскольку корабль имеет загрузку 3436 кг, значит общая масса всего корабля после вывода на опорную орбиту должна быть в районе 7414 кг.

tnt22

https://blogs.nasa.gov/stationreport/2019/04/19/iss-daily-summary-report-4192019/
ЦитироватьISS Daily Summary Report – 4/19/2019

Northrop Grumman 11 (NG-11):
The crew successfully captured Cygnus with the Space Station Remote Manipulation System (SSRMS) today at 4:28AM CT. Once captured, they handed off control of the SSRMS to ground Robotics Controllers who then maneuvered the vehicle to the Node 1 Nadir (N1N) Common Berthing Mechanism (CBM) interface where it was securely bolted to the ISS. Once the CBM bolting operations were complete, the crew and ground teams worked together to perform Node 1 CBM vestibule pressurization followed by hatch opening and ingress at 11:08 AM CT; NG-11 brings approximately 3426 kg of cargo to ISS.