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It is not clear why many people prefer Windows 7 but it isn’t deniable too. When you download Windows 7 to your PC, you have the privilege of enjoying its features for a period of 3 months (90 days) after which you would be required to purchase a license to continue to enjoy its features. It is at this point that the need of Windows 7 Activator becomes imminent. If you have this tool, you have no need to worry about license purchase as it would activate Merits of Windows 7 Activator. Its activation is a lifetime.
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You may also want to turn off Windows defender although it is not necessary. Next is to get the activation file and extract the installer. It should be an.exe file. Proceed to install the file on your PC by right-clicking or double-clicking. You need to exercise some patience while the installation is being completed. Once the installation is complete, you should reboot your machine for a complete activation.
Once the system restarts successfully, you’ve just completed the lifetime activation of your Window 7. Some Exciting Features of Windows 7 The features of Windows 7 OS are quite exhaustive and we surely cannot touch on all but here are a few of them that perhaps still make it acceptable by all and sundry till date. Start Menu Just like the name suggests, this is where you “start” the program before you can possibly get to access all of its contents. Similarly, let’s say you are looking for a file’s location, once you click on the start menu, you get an option to search for such file by simply typing the name in the given space. Notifications & Taskbar Area This area has three sections viz start button, launch bar, plus the notification aspect.
All of these have their individual functions as suggested by their names. LAN/Wi-Fi This has been so made such that you can connect to the internet either through your local wired network or a wireless one. The connection is pretty simple to do and the feature ensures that you can use your computer to browse effectively. Snipping Tool That is another interesting feature that accompanies Windows 7. You can snip pictures just the same way you can also share those pictures even after sharing it. The images that you have snipped on your desktop can be shared to another desktop via this feature.
Explorer Libraries This ensures an orderly arrangement of all your documents so that you can easily locate each one when searching for it. Similarly, related files and information can be arranged together in this regard to ensure that you get all you need on a particular subject. External Display There are times when you would need to connect to an external display medium such as a projector in order to amplify the view. This product ensures that this is done effortlessly through its ThinkPad option. More Screenshot Key Features Windows 7 activator 32/64 Bit Download. It is very easy to install.
If you have an antivirus program running on your computer, deactivate it first. After deactivating your antivirus, download the activator. Run and install the activator.
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You are not limited when it comes to installing the activator on your PC. The tool is fully encrypted. This means that your security and your privacy is kept safe. You do not have to worry that someone will track your PC down because you used the activator. It runs before Windows which means Microsoft cannot avert the activator. The activation is thus almost real and authentic. In a matter of a few minutes, you get to enjoy all the features of.
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You want to do something quick and urgent on your PC, but your Windows is not activated. Windows 7 Activator is the solution. You get a unique version of the software installed on your PC different from other users. It has a user-friendly interface which makes it very easy to use the program. You may not exactly need the internet. You can use the Offline Activator to activate fully your windows without necessarily having to link to the Microsoft activation servers.
System Requirements. 2GB RAM. 4GB Hard Disk Space Windows 7 activator released by DAZ team. It holds all feature and backward functionality of windows xp. So this is fine.
I always appreciate this work. Activation process. Disable all antivirus program. Download windows loader link from official website. Continue to run anyway, this is done. You need to enjoy its premium feature Author Note: You can now enjoy the full features of Windows by getting. You do not need the internet to have it, and it is easy to install.
System Requirements Well, we are going to touch on the system requirements both for the activator as well as Windows 7 since the two work hand-in-hand. Here are the basic requirements which should suffice for both.
The processor can either be of 32 or 64-Bit but its speed must not drop below 1 GHz. A faster one would be preferable. Now, depending on whether it is 32 or 64 Bit, its RAM requirement would differ. For 32-Bit, 1 GB is the minimum while for 64 GB, you need a 2 GB RAM for optimization.
A Graphics card that is of DX 9.0 is required too. That must be accompanied by a driver that at a minimum has WDDM 1.0 How to activate? The cracking procedure is much similar to the usage procedure too. Turn off your Windows 7 defender and do same to any antivirus running on your PC.
Check on this page to get the link to where you can download the crack file. Patiently extract the installable file from it and do the needful.
In other words, run it. Please do not interrupt your system while the installation is going. Once you complete the process, it would prompt you to reboot your computer. Accede to the prompting.
Upon a successful reboot, you are done! Bottom Line Running a Windows 7 that is not genuine or rightly activated can result in a lot of issues for your system in real time. That aside, you are restricted from some updates that a rightly activated OS would be open to normally. That is the reason you have to get the activator. Good enough, it is lightweight, compatible with all editions of the OS, and ultimately, it isn’t difficult to use.
If you have just upgraded to Windows 7, you need to also activate it too in just the same way someone installing the OS from the scratch would have to do. Howbeit, if you have associated your password with your Microsoft account, even if you change your laptop or desktop, you can still log in with your details to get it activated.
The SpaceX Dragon CRS variant approaching the during the mission in May 2012. Description Role Crew None (–) (–) (–) Maiden flight December 8, 2010; 8 years ago ( 2010-12-08) (first orbital flight) May 22, 2012; 6 years ago ( 2012-05-22) (first cargo delivery to ISS) Dimensions Height 6.1 metres (20 ft) Diameter 3.7 metres (12 ft) Sidewall angle 15 degrees Volume 10 m 3 (350 cu ft) pressurized 14 m 3 (490 cu ft) unpressurized 34 m 3 (1,200 cu ft) unpressurized with extended trunk 4,200 kg (9,300 lb) to ISS 6,000 kg (13,000 lb), which can be all pressurized, all unpressurized or anywhere between.
It can return to Earth 3,500 kg (7,700 lb), which can be all unpressurized disposal mass or up to 3,000 kg (6,600 lb) of return pressurized cargo Miscellaneous Endurance 1 week to 2 years at 3.5 Propellant / Dragon is a reusable developed by, an American private space transportation company. Dragon is launched into orbit by the company's. During its maiden flight in December 2010, Dragon became the first commercially built and operated spacecraft to be recovered successfully from orbit. On 25 May 2012, a cargo variant of Dragon to successfully with and attach to the (ISS). SpaceX is contracted to deliver cargo to the ISS under 's program, and Dragon began regular cargo flights in October 2012.
With the Dragon spacecraft and the, NASA seeks to increase its partnerships with domestic commercial aviation and aeronautics industry. On 3 June 2017, the capsule, largely assembled from previously flown components from the mission in September 2014, was launched again for the first time, with the hull, structural elements, thrusters, harnesses, propellant tanks, plumbing and many of the avionics reused while the heat shield, batteries and components exposed to sea water upon splashdown for recovery were replaced. SpaceX has developed a second version called, which includes the capability to transport people. Flight testing is scheduled to complete in the first half of 2019 with the first flight of astronauts, on a mission contracted to, scheduled to occur later the same year. Contents.
Name SpaceX's CEO, named the spacecraft after the 1963 song ' by, reportedly as a response to critics who considered his spaceflight projects impossible. History SpaceX began the Dragon spacecraft in late 2004, making a public announcement in 2006 with a plan of entering service in 2009.
Also in 2006, SpaceX won a contract to use the Dragon spacecraft for commercially supplied resupply services to the International Space Station for the American space agency, NASA. NASA ISS resupply contract Commercial Orbital Transportation Services In 2005, NASA solicited proposals for a commercial ISS resupply cargo vehicle to replace the then-soon-to-be-retired, through its (COTS) development program. The Dragon spacecraft was a part of SpaceX's proposal, submitted to NASA in March 2006.
SpaceX's COTS proposal was issued as part of a team, which also included, the Canadian company that had built the ISS's. The DragonEye system on during On 18 August 2006, NASA announced that SpaceX had been chosen, along with, to develop cargo launch services for the ISS.
The initial plan called for three demonstration flights of SpaceX's Dragon spacecraft to be conducted between 2008 and 2010. SpaceX and Kistler were to receive up to $278 million and $207 million respectively, if they met all NASA milestones, but Kistler failed to meet its obligations, and its contract was terminated in 2007. NASA later re-awarded Kistler's contract to. Commercial Resupply Services Phase 1 On 23 December 2008, NASA awarded a $1.6 billion (CRS) contract to SpaceX, with contract options that could potentially increase the maximum contract value to $3.1 billion. The contract called for 12 flights, with an overall minimum of 20,000 kg (44,000 lb) of cargo to be carried to the ISS.
On 23 February 2009, SpaceX announced that its chosen phenolic-impregnated carbon ablator heat shield material, PICA-X, had passed heat stress tests in preparation for Dragon's maiden launch. The primary proximity-operations sensor for the Dragon spacecraft, the DragonEye, was tested in early 2009 during the mission, when it was mounted near the docking port of the and used while the Shuttle approached the.
The DragonEye's and (thermal imaging) abilities were both tested successfully. The COTS UHF Communication Unit (CUCU) and Crew Command Panel (CCP) were delivered to the ISS during the late 2009 mission. The CUCU allows the ISS to communicate with Dragon and the CCP allows ISS crew members to issue basic commands to Dragon. In summer 2009, SpaceX hired former astronaut as vice president of their new Astronaut Safety and Mission Assurance Department, in preparation for crews using the spacecraft. As a condition of the NASA CRS contract, SpaceX analyzed the orbital on all Dragon systems, and how the spacecraft would respond to spurious radiation events. That analysis and the Dragon design – which uses an overall triple-redundant computer architecture, rather than individual of each computer processor – was reviewed by independent experts before being approved by NASA for the cargo flights.
During March, 2015, it was announced that SpaceX had been awarded an additional three missions under Commercial Resupply Services Phase 1. These additional missions are, and and would cover the cargo needs of 2017. On 24 February 2016, SpaceNews disclosed that SpaceX had been awarded a further five missions under Commercial Resupply Services Phase 1. This additional tranche of missions had and manifested for FY2017 while, and and were notionally manifested for FY2018.
Commercial Resupply Services Phase 2 The Commercial Resupply Services 2 (CRS2) contract definition/solicitation period commenced in 2014 and a result announced on 14 January 2016. The CRS2 launches are expected to commence in 2019, and extend to at least 2024. On 14 January 2016, NASA announced that three companies had been awarded contracts for a minimum of six launches each., and won contracts. The maximum potential value of all the contracts was indicated to be $14Bn but the minimum requirements would be considerably less.
No further financial information was disclosed. The missions involved would be from late 2019 through to 2024. Demonstration flights. The first flight of the Falcon 9, a flight, occurred in June 2010 and launched a version of the Dragon capsule. This had initially been used as a ground test bed to validate several of the capsule's systems. During the flight, the unit's primary mission was to relay aerodynamic data captured during the ascent. It was not designed to survive re-entry, and did not.
NASA contracted for three test flights from SpaceX, but later reduced that number to two. The first Dragon spacecraft launched on its first mission – contracted to NASA as – on 8 December 2010, and was successfully recovered following re-entry to Earth's atmosphere. The mission also marked the second flight of the Falcon 9 launch vehicle.
The DragonEye sensor flew again on in February 2011 for further on-orbit testing. In November 2010, the (FAA) had issued a re-entry license for the Dragon capsule, the first such license ever awarded to a commercial vehicle. The, also contracted to NASA as a demonstration mission, launched successfully on 22 May 2012, after NASA had approved SpaceX's proposal to combine the COTS 2 and 3 mission objectives into a single Falcon 9/Dragon flight, renamed COTS 2+.
Dragon conducted orbital tests of its navigation systems and abort procedures, before being grappled by the ISS' and successfully berthing with the station on 25 May to offload its cargo. Dragon returned to Earth on 31 May 2012, landing as scheduled in the, and was again successfully recovered. On 23 August 2012, NASA Administrator announced that SpaceX had completed all required milestones under the COTS contract, and was cleared to begin. Returning research materials from orbit Dragon spacecrafts can return to Earth 3,500 kg (7,700 lb), which can be all unpressurized disposal mass or up to 3,000 kg (6,600 lb) of return pressurized cargo from the ISS, and is the only current spacecraft capable of returning to Earth with a significant amount of cargo.
Other than the Russian Soyuz crew capsule, Dragon is the only currently operating spacecraft designed to survive re-entry. Because Dragon allows for the return of critical materials to researchers in as little as 48 hours from splashdown, it opens the possibility of new experiments on ISS that can produce materials for later analysis on ground using more sophisticated instrumentation. For example, CRS-12 returned mice that have spent time in orbit which will help give insight into how microgravity impacts blood vessels in both the brain and eyes, and in determining how arthritis develops. Operational flights.
Main article: Dragon was launched on its on 8 October 2012, and completed the mission successfully on 28 October. NASA initially contracted SpaceX for 12 operational missions, and later extended the CRS contract with 8 more flights, bringing the total to 20 launches until 2019. In 2016, a new batch of 6 missions under the was assigned to SpaceX; those missions are scheduled to be launched between 2020 and 2024. Reuse of previously-flown capsules , SpaceX's eleventh CRS mission, was successfully launched on June 3, 2017 from, being the 100th mission to be launched from that pad. This mission was the first to re-fly a recovered Dragon capsule that previously flew on mission. This mission delivered 2,708 kilograms of cargo to the International Space Station, including. The first stage of the Falcon 9 launch vehicle landed successfully at.
This mission launched for the first time a refurbished Dragon capsule, serial number, which had flown in September 2014 on the mission, and was the first time since 2011 a reused spacecraft arrived at the ISS. Capsule is the only other reused capsule, but it was only reflown suborbitally in 1966., SpaceX's twelfth CRS mission, was successfully launched on the first 'Block 4' version of the Falcon 9 on August 14, 2017 from at the first attempt. This mission delivered 2,349 kg (5,179 lb) of pressurized mass and 961 kg (2,119 lb) unpressurized. The external payload manifested for this flight was the CREAM cosmic-ray detector. Last flight of a newly-built Dragon capsule; further missions will use refurbished spacecraft., SpaceX's thirteenth CRS mission, was the second use of a previously-flown Dragon capsule, but the first time in concordance with a reused first-stage booster.
It was successfully launched on December 15, 2017 from at the first attempt. This was the first launch from SLC-40 since the pad anomaly.
The booster was the previously-flown core from the mission. This mission delivered 1,560 kg (3,439 lb) of pressurized mass and 645 kg (1,422 lb) unpressurized. It returned from orbit and on January 13, 2018, making it the first to be reflown to orbit more than once., SpaceX's fourteenth CRS mission, was the third reuse of a previously-flown Dragon capsule.
It was successfully launched on April 2, 2018 from. It successfully docked with the ISS on April 4, 2018 and remained docked for a month before returning cargo and science experiments back to earth., successfully launched on June 29, 2018, was the fourth reuse. Crewed development program.
Interior of the Dragon 2 capsule, showing the seat configuration In 2006, Elon Musk stated that SpaceX had built 'a prototype flight crew capsule, including a thoroughly tested 30-man-day life-support system'. A video simulation of the launch escape system's operation was released in January 2011. Musk stated in 2010 that the developmental cost of a crewed Dragon and Falcon 9 would be between $800 million and $1 billion. In 2009 and 2010, Musk suggested on several occasions that plans for a crewed variant of the Dragon were proceeding and had a two-to-three-year timeline to completion. SpaceX submitted a bid for the third phase of CCDev,. NASA Commercial Crew Development program SpaceX was not awarded funding during the first phase of NASA's (CCDev) milestone-based program.
However, the company was selected on 18 April 2011, during the second phase of the program, to receive an award valued at $75 million to help develop its crew system. Their CCDev2 milestones involved the further advancement of the Falcon 9/Dragon crew transportation design, the advancement of the propulsion design, completion of two crew accommodations demos, full-duration test firings of the launch abort engines, and demonstrations of their throttle capability. SpaceX's launch abort system received preliminary design approval from NASA in October 2011. In December 2011, SpaceX performed its first crew accommodations test; the second such test is expected to involve simulators and a higher-fidelity crewed Dragon mock-up.
In January 2012, SpaceX successfully conducted full-duration tests of its SuperDraco landing/escape rocket engine at its Rocket Development Facility in. Dragon during its on 6 May 2015 On 3 August 2012, NASA announced the award of $440 million to SpaceX for the continuation of work on the Dragon under CCiCap. On 20 December 2013, SpaceX completed a parachute drop test to validate the new parachute design. This involved carrying a 5,400 kilograms (12,000 lb) Dragon test article by helicopter to an altitude of 2,400 meters (8,000 ft) above the Pacific Ocean. The test article was released and intentionally forced into a tumble. Dragon then released its two, followed by its three main parachutes and splashed down into the ocean. The test article was then retrieved by helicopter and returned to shore.
On 6 May 2015, SpaceX completed a pad abort test for the Dragon 2. During this test, the Dragon used its abort engines to launch away from a test stand at Launch Complex 40.
It traveled to an altitude of 1,187 meters (3,894 ft), separated from its trunk, deployed its drogue parachutes and then the main parachutes. It splashed down into the ocean and was recovered. The vehicle was planned to reach an altitude of 1,500 meters (5,000 ft) but one of the engines underperformed due to an abnormal fuel mixture ratio.
In a planned in-flight abort test, Dragon will use its launch abort engines to escape from a Falcon 9 first stage in flight. The launch is planned to occur from. This test will occur at the point of worst-case dynamic loads, which is also when Dragon has the smallest performance margin for separation from its launch vehicle. The Falcon 9 planned to be used will be a regular first stage and will have no second stage. An uncrewed test mission to the ISS, is planned to be launched in January 2019.
It will be a 30-day mission that will spend the majority of its time docked to the space station. It will then land in the ocean and be retrieved. A crewed test mission to the ISS, is planned to be launched in June 2019 and last for 14 days.
Development funding In 2014, SpaceX released the total combined development costs for both the Falcon 9 launch vehicle and the Dragon capsule. NASA provided US$396 million while SpaceX provided over US$450 million to fund both development efforts. Production. A Dragon capsule being shipped out of SpaceX HQ in Hawthorne, California, February 2015. In December 2010, the SpaceX production line was reported to be manufacturing one new Dragon spacecraft and Falcon 9 rocket every three months. Elon Musk stated in a 2010 interview that he planned to increase production turnover to one Dragon every six weeks by 2012.
Are extensively used in the spacecraft's manufacture to reduce weight and improve structural strength. By September 2013, SpaceX total manufacturing space had increased to nearly 1,000,000 square feet (93,000 m 2) and the factory had six Dragons in various stages of production.
SpaceX published a photograph showing the six, including the next four NASA Commercial Resupply Services (CRS) mission Dragons (, ) plus the drop-test Dragon, and the pad-abort Dragon for commercial crew. Variants and Derivatives Dragon CRS. Drawing showing the pressurized (red) and unpressurized (orange) sections of Dragon V1 The Dragon spacecraft consists of a nose-cone cap that jettisons after launch, a conventional blunt-cone, and an unpressurized cargo-carrier trunk equipped with two solar arrays. The capsule uses a PICA-X heat shield, based on a proprietary variant of NASA's (PICA) material, designed to protect the capsule during Earth, even at high return velocities from Lunar and Martian missions. The Dragon capsule is re-usable, and can fly multiple missions.
The trunk is not recoverable; it separates from the capsule before re-entry and burns up in Earth's atmosphere. The trunk section, which carries the spacecraft's solar panels and allows the transport of unpressurized cargo to the ISS, was first used for cargo on the mission. Dragon CRS The spacecraft is launched atop a booster.
The Dragon capsule is equipped with 18 thrusters. During its initial cargo and crew flights, the Dragon capsule will land in the Pacific Ocean and be returned to the shore by ship. For the ISS Dragon cargo flights, the ISS's Canadarm2 grapples its and berths Dragon to the station's using a.
The CRS Dragon does not have an independent means of maintaining a breathable atmosphere for astronauts and instead circulates in fresh air from the ISS. For typical missions, Dragon is planned to remain berthed to the ISS for about 30 days. The CRS Dragon's capsule can transport 3,310 kg (7,300 lb) of cargo, which can be all pressurized, all unpressurized, or anywhere between.
It can return to Earth 3,310 kg (7,300 lb), which can be all unpressurized disposal mass, or up to 2,500 kg of return pressurized cargo, driven by parachute limitations. There is a volume constraint of 14 m 3 (490 cu ft) trunk unpressurized cargo and 11.2 m 3 (400 cu ft) of pressurized cargo (up or down). The trunk was first used operationally on the Dragon's mission in March 2013. Its solar arrays produce a peak power of 4 kW. The CRS Dragon design was modified beginning with the fifth Dragon flight on the mission to the ISS in March 2014.
While the of the Dragon was unchanged, the avionics and cargo racks were redesigned to supply substantially more to powered cargo devices, including the and freezer modules for critical science payloads. DragonLab When used for non-NASA, non-ISS commercial flights, the uncrewed version of the Dragon spacecraft is called DragonLab.
It is reusable and free-flying and can carry pressurized and unpressurized payloads. Its subsystems include propulsion, power, communications, flight software, and entry, descent, landing, and recovery gear.
It has a total combined of 6,000 kilograms (13,000 lb) upon launch, and a maximum of 3,000 kilograms (6,600 lb) when returning to Earth. In November 2014 there were two DragonLab missions listed on the SpaceX launch manifest: one in 2016 and another in 2018. However, these missions were removed from the manifest in early 2017, with no official SpaceX statement. The American once performed similar uncrewed payload-delivery functions, and the Russian still continue to do so. Dragon 2. Main article: was a version of the Dragon spacecraft that had been previously proposed to fly farther than Earth orbit and to via.
In addition to SpaceX's own privately funded plans for an eventual, NASA had developed a concept called Red Dragon: a low-cost Mars mission that would use as the launch vehicle and trans-Martian injection vehicle, and the -based capsule to enter the. The concept was originally envisioned for launch in 2018 as a, then alternatively for 2022, but was never formally submitted for funding within NASA. The mission would have been designed to return samples from Mars to Earth at a fraction of the cost of NASA's own sample-return mission, which was projected in 2015 to cost 6 billion dollars. On 27 April 2016, SpaceX announced its plan to go ahead and launch a modified Dragon lander to Mars in 2018.
However, Musk canceled the Red Dragon program in July 2017. The modified Red Dragon capsule would have performed all entry, descent and landing (EDL) functions needed to deliver payloads of 1 tonne (2,200 lb) or more to the Martian surface without using a parachute. Preliminary analysis showed that the capsule's atmospheric drag would slow it enough for the final stage of its descent to be within the abilities of its retro-propulsion thrusters.
List of missions List includes only completed or currently manifested missions. Launch dates are listed in. Mission Capsule No.
Launch date (UTC) Remarks Time at ISS (dd hh mm) Outcome C101 8 December 2010 First Dragon mission, second Falcon 9 launch. Mission tested the orbital maneuvering and reentry of the Dragon capsule. After recovery, the capsule was put on display at SpaceX's headquarters. N/A Success C102 22 May 2012 First Dragon mission with complete spacecraft, first rendezvous mission, first berthing with ISS. After recovery, the capsule was put on display at. 5d 16h Success C103 8 October 2012 First Commercial Resupply Services (CRS) mission for NASA, first non-demo mission.
Falcon 9 rocket suffered a partial engine failure during launch but was able to deliver Dragon into orbit. However, a secondary payload did not reach its correct orbit. 17d 22h Success; launch anomaly C104 1 March 2013 First launch of Dragon using trunk section to carry cargo. Launch was successful, but anomalies occurred with the spacecraft's thrusters shortly after liftoff. Thruster function was later restored and orbit corrections were made, but the spacecraft's rendezvous with the ISS was delayed from its planned date of 2 March until 3 March, when it was successfully berthed with the.
Dragon splashed down safely in the Pacific Ocean on 26 March. 22d 18h Success; spacecraft anomaly C105 18 April 2014 First launch of the redesigned Dragon: same with the avionics and cargo racks redesigned to supply substantially more to powered cargo devices, including additional cargo freezers (, ) for transporting critical science payloads. Launch rescheduled for 18 April due to a helium leak. 27d 21h Success 21 September 2014 First launch of a Dragon with living payload, in the form of 20 mice which are part of a NASA experiment to study the physiological effects of long-duration spaceflight. 31d 22h Success C107 10 January 2015 Cargo manifest change due to launch failure. Carried the experiment. 29d 03h Success C108 14 April 2015 The robotic SpaceX Dragon capsule splashed down in the Pacific Ocean on Thursday, 21 May 2015.
33d 20h Success 6 May 2015 Pad abort test, Cape Canaveral Air Force Station, Florida N/A Success C109 28 June 2015 This mission was supposed to deliver the first of two (IDA) to modify Russian APAS-95 docking ports to the newer international standard. The payload was lost due to an in-flight explosion of the carrier rocket. The Dragon capsule survived the blast; it could have deployed its parachutes and performed a splashdown in the ocean, but its software did not take this situation into account. N/A Failure C110 8 April 2016 Delivered the module in the unpressurized cargo trunk.
First stage landed for the first time successfully on sea barge. A month later, the Dragon capsule was recovered, carrying a downmass containing astronaut's Scott Kelly biological samples from his year-long mission on board of ISS. 30d 21h Success C111 18 July 2016 Delivered docking adapter -2 to modify the ISS docking port (PMA-2) for Commercial Crew spacecraft. Longest time a Dragon Capsule was in space. 36d 6h Success C112 19 February 2017 First launch from KSC LC-39A since in mid-2011.
Berthing to the ISS was delayed by a day due to software incompatibilities. 23d 8h Success ♺ 3 June 2017 The first mission to re-fly a recovered Dragon capsule (previously flown on CRS-4). 27d 1h Success C113 14 August 2017 Last mission to use a new Dragon 1 spacecraft 30d 21h Success C108 ♺ 15 December 2017 First NASA mission to fly aboard a flight-proven Falcon 9 25d 21h Success C110 ♺ 2 April 2018 Third reuse of a Dragon capsule, only necessitated replacing its heatshield, trunk, and parachutes. Returned over 4000 pounds of cargo. 23d 1h Success C111 ♺ 29 June 2018 Fourth reuse.
32d 2h Success C112 ♺ 4 December 2018 Five reuse. In progress C201 January 2019 Uncrewed test flight of the capsule Planned 17 February 2019 Scheduled C201 ♺ May 2019 The in-flight abort test will be conducted with the refurbished capsule from the uncrewed test flight. N/A Planned May 2019 Planned C203 June 2019 Crewed test flight of the capsule, with two astronauts for two weeks Planned November 2019 Planned 2019 and after First operational crew transport mission with Dragon 2. Pending success of SpX-DM1 and SpX-DM2, NASA has awarded six missions with Dragon 2.0 to carry up to four astronauts and 220 pounds of cargo to the ISS as well as feature a lifeboat function to evacuate astronauts from ISS in case of an emergency. Planned January 2020 Planned CRS2 missions 1–6 2020–2024 NASA has awarded SpaceX six more cargo missions under the. Those missions were originally scheduled to begin in 2019 but were delayed.
Planned Specifications. Size comparison of the (left), (center) and Dragon (right) capsules DragonLab The following specifications are published by SpaceX for the non-NASA, non-ISS commercial flights of the refurbished Dragon capsules, listed as 'DragonLab' flights on the SpaceX manifest. The specifications for the NASA-contracted Dragon Cargo were not included in the 2009 DragonLab datasheet. Pressure vessel. 10 m 3 (350 cu ft) interior pressurized, environmentally controlled, payload volume. Onboard environment: 10–46 °C (50–115 °F); 2575%; 13.914.9 air pressure (958.41027 ). Unpressurized sensor bay (recoverable payload).
0.1 m 3 (3.5 cu ft) unpressurized payload volume. Sensor bay hatch opens after orbit insertion to allow full sensor access to the environment, and closes before Earth atmosphere re-entry. Unpressurized trunk (non-recoverable). 14 m 3 (490 cu ft) payload volume in the 2.3 m (7 ft 7 in) trunk, aft of the pressure vessel heat shield, with optional trunk extension to 4.3 m (14 ft 1 in) total length, payload volume increases to 34 m 3 (1,200 cu ft). Supports sensors and space apertures up to 3.5 m (11 ft 6 in) in diameter. Power, and command systems. Power: twin providing 1,500 W average, 4,000 W peak, at 28 and 120.
Spacecraft communications: commercial standard and serial I/O, plus communications for -addressable standard payload service. Command: 300 k. /data: 300 Mbit/s standard, telemetry and video transmitters.
Radiation tolerance Dragon uses a 'radiation-tolerant' design in the electronic hardware and software that make up its. The system uses three pairs of computers, each constantly checking on the others, to instantiate a. In the event of a radiation upset or soft error, one of the computer pairs will perform a. Including the six computers that make up the main flight computers, Dragon employs a total of 18 triple-processor computers. See also. Comparable vehicles Cargo. – a retired expendable cargo vehicle used by the in 2008–2014.
– a single-use, expendable cargo vehicle developed by. – a proposed cargo variant of 's spaceplane. – an expendable cargo vehicle currently in use by. – an expendable cargo vehicle currently in use by the Russian Federal Space Agency Crew Transport.
– a spacecraft being developed by. – a planned crew variant of 's spaceplane. – a beyond-low-Earth-orbit spacecraft being developed by for NASA. – a reusable manned spacecraft under development by the References. ^ Clark, Stephen (18 May 2012). Retrieved 29 June 2012. ^ Bates, Daniel (9 December 2010).
Retrieved 9 December 2010. Archived from (PDF) on 20 March 2012. Retrieved 9 December 2010. Hawthorne, California: SpaceX. 8 September 2009. Archived from (PDF) on 4 January 2011.
Retrieved 19 October 2010. ^. Bowersox, Ken (25 January 2011). Archived from (PDF) on 25 April 2012.
Retrieved 13 October 2011. Musk, Elon (17 July 2009).
Retrieved 16 April 2012. February 2012. Retrieved 8 February 2013. Chang, Kenneth (25 May 2012). Retrieved 25 May 2012.
Retrieved 28 May 2012. 8 October 2012. Spaceflight Now. 31 August 2012. Retrieved 12 September 2012. Spaceflight Now. 7 September 2012.
Retrieved 12 September 2012. 20 March 2012. Retrieved 11 April 2012. 23 December 2008. Retrieved 1 March 2011. Mark Carreau (3 June 2017). Aviation Week Network.
^ Heiney, Anna (October 4, 2018). (Press release). Retrieved October 5, 2018. Retrieved 26 May 2012. ^ Berger, Brian (8 March 2006).
Retrieved 9 December 2010. Spaceflight Now. 18 August 2006. Archived from on 18 December 2011.
Retrieved 18 December 2011. Thorn, Valin (11 January 2007). Retrieved 15 April 2012. ^ (18 August 2006).
Archived from on 18 December 2011. Retrieved 18 December 2011. ^ Berger, Brian (19 October 2007). Archived from on 18 December 2011. Retrieved 9 December 2010.
Bergin, Chris (19 February 2008). Retrieved 18 December 2011. ^ (Press release). Hawthorne, California: SpaceX. 23 December 2008. Archived from on 21 July 2009.
Retrieved 26 January 2009. (Press release). 23 February 2009.
Archived from on 3 January 2010. Retrieved 16 July 2009. (original link is dead; see version at (accessed 1 September 2015). Chaikin, Andrew (January 2012). Air & Space Smithsonian.
Archived from on 18 December 2011. Retrieved 13 November 2011. (Press release). Hawthorne, California: SpaceX. 23 September 2009. Archived from on 18 December 2011. Retrieved 18 December 2011.
Retrieved 9 November 2012. ^ Bergin, Chris (28 March 2010). Retrieved 27 April 2012. (Press release). 18 June 2009.
Archived from on 18 December 2011. Retrieved 22 December 2012. ^ Svitak, Amy (18 November 2012).
Aviation Week. Retrieved 20 August 2015. Bergin, Chris (3 March 2015). NASA SpaceFlight.
Retrieved 24 February 2016. de Selding, Peter B. (24 February 2016).
Retrieved 24 February 2016. Washington Post.
14 January 2016. Retrieved 17 January 2016. Guy Norris (20 September 2009). Retrieved 26 October 2012. Archived from on 17 June 2011. Retrieved 9 June 2010. 8 December 2010.
Retrieved 16 November 2011. 19 July 2010.
Retrieved 24 April 2013. (Press release). 22 November 2010. Retrieved 24 April 2013. Ray, Justin (9 December 2011).
Tonbridge, Kent, United Kingdom: Spaceflight Now. Archived from on 9 December 2011.
Retrieved 9 December 2011. Retrieved 13 September 2012. Retrieved 23 May 2012. Via SpaceRef.com. Retrieved 23 May 2012.
Pierrot Durand (28 May 2012). French Tribune. Via BusinessTech.co.za. Retrieved 27 April 2013. 23 August 2012.
Retrieved 4 September 2012. 28 October 2012. Retrieved 23 December 2012. Clark, Stephen. Retrieved 2017-06-03.
Retrieved 2016-02-26. Previously scheduled for a December 2016 launch on SpaceX-12, NICER will now fly to the International Space Station with two other payloads on SpaceX Commercial Resupply Services (CRS)-11, in the Dragon vehicle's unpressurized Trunk. Foust, Jeff (October 14, 2016). Retrieved November 11, 2017. Gebhardt, Chris (May 28, 2017). Retrieved May 30, 2017.
Nasa Spaceflight.com July 26, 2017. Bergin, Chris; Gebhardt, Chris (2018-01-13). Retrieved 2018-01-14. 19 June 2015. Retrieved 19 August 2016. 11 October 2010.
Retrieved 28 February 2011. Spaceflight Now. 24 January 2010.
Retrieved 27 April 2013. Rosenberg, Zach (30 March 2012). Retrieved 15 April 2012. 23 January 2012. Retrieved 25 January 2012. Clark, Stephen (11 October 2010).
Retrieved 12 April 2012. Chow, Denise (18 April 2011). Retrieved 12 April 2012. 18 April 2011. Archived from (PDF) on 12 June 2012. Retrieved 15 April 2012. Paur, Jason (27 October 2011).
San Francisco. Archived from on 18 December 2011. Retrieved 28 October 2011. 16 February 2012. Retrieved 14 April 2012. 23 March 2012.
Retrieved 14 April 2012. 1 February 2012. 4 January 2013 at. 3 August 2012. Messier, Doug (17 January 2014). Parabolic Arc.
Retrieved 21 January 2014. 17 January 2014. Retrieved 21 January 2014. Retrieved 7 May 2015.
^ Clark, Stephen (6 May 2015). Spaceflight Now. Retrieved 7 May 2015. ^ Foust, Jeff (6 May 2015). Retrieved 7 May 2015.
^ Bergin, Chris (6 May 2015). Retrieved 7 May 2015. Musk, Elon (6 May 2015).
Retrieved 7 May 2015. 24 July 2012.
Archived from on 16 December 2012. Retrieved 4 August 2012. ^ Bergin, Chris (18 March 2015). Retrieved 7 May 2015.
Foust, Jeff (4 February 2016). Retrieved 21 March 2016. Shotwell, Gwynne (4 June 2014). Atlantic Council. Event occurs at 12:20–13:10. Retrieved 8 June 2014.
NASA ultimately gave us about $396 million; SpaceX put in over $450 million. for an EELV-class launch vehicle. As well as a capsule. Chow, Denise (8 December 2010).
Archived from on 18 December 2011. Retrieved 31 May 2012. 15 June 2012. Retrieved 11 January 2013. 24 September 2013. Retrieved 29 September 2013.
Retrieved 16 April 2012. ^ Clark, Stephen (16 July 2010). Spaceflight Now. Retrieved 16 July 2010. 10 December 2007. Retrieved 11 December 2007. Spaceflight Now.
16 July 2010. Retrieved 4 February 2013. 26 March 2013. Retrieved 13 April 2013.
The unpressurized trunk section of the Dragon spacecraft separates. The trunk is designed to burn up on re-entry, while the pressurized capsule returns to Earth intact. Jones, Thomas D. (December 2006). 'Tech Watch — Resident Astronaut'. Popular Mechanics. 183 (12): 31.
6 December 2010. Archived from (PDF) on 15 April 2012.
Retrieved 29 April 2012. Bergin, Chris (12 April 2012).
Retrieved 15 April 2012. Hernandez, Siarhei Piatrovich, Mauro Prina (2011). SpaceX / American Institute of Aeronautics and Astronautics. Retrieved 15 April 2012. CS1 maint: Uses authors parameter. (PDF). Retrieved 15 April 2012.
^ Bergin, Chris (19 October 2012). Retrieved 21 October 2012. CRS-2 will debut the use of Dragon’s Trunk section, capable of delivering unpressurized cargo, prior to the payload being removed by the ISS’ robotic assets after berthing. ^ Gwynne Shotwell (21 March 2014). (audio file). The Space Show.
Event occurs at 18:35–19:10. Archived from (mp3) on 22 March 2014. Retrieved 22 March 2014.
Looks the same on the outside. New avionics system, new software, and new cargo racking system. Hawthorne, California: SpaceX. Archived from on 20 November 2014. Retrieved 11 December 2014.
11 December 2014. Retrieved 11 December 2014. Bergin, Chris (16 September 2014). NASA SpaceFlight. Retrieved 15 January 2016.
^ Wall, Mike (10 September 2015). Retrieved 20 September 2015.
(27 April 2016). (Tweet) – via. Newmann, Dava. NASA Official Blog. Retrieved 27 April 2016. Berger, Eric (19 July 2017).
Ars Technica. Retrieved 21 July 2017. Wall, Mike (31 July 2011). Retrieved 1 May 2012. NASA Ames Research Center.
1 November 2011. Archived from (PDF) on 20 January 2013. Retrieved 1 May 2012. 9 December 2010. Retrieved 11 April 2012. (December 14, 2016). Retrieved April 6, 2018 – via.
8 October 2012. Archived from on 6 October 2012.
Retrieved 9 October 2012. 25 September 2012. 1 March 2013.
Retrieved 2 March 2013. Spaceflight Now. Retrieved 15 November 2012. 2 March 2013. Retrieved 2 March 2013.
1 March 2013. Retrieved 1 March 2013.
Boston Globe. 26 March 2013. Retrieved 28 March 2013.
4 April 2014. Retrieved 4 April 2014. Archived from on 26 April 2014.
18 April 2014. Retrieved 18 April 2014. Retrieved 8 August 2014. 18 September 2014. Retrieved 18 October 2014. Spaceflight Insider.
Retrieved 22 November 2014. Clark, Stephen (6 May 2015).
Spaceflight Now. Retrieved 6 May 2015. Retrieved 5 February 2015. Bergin, Chris (July 27, 2015). Retrieved April 6, 2018.
Cooper, Ben. Retrieved 6 February 2016. Lindsey, Clark (16 January 2013). NewSpace Watch. Retrieved 24 January 2013.
(Subscription required ( help)). (Press release).
Retrieved 20 June 2016. Garcia, Mark. Clark, Stephen. Spaceflight Now. Retrieved 19 March 2017.
Etherington, Darrell (3 July 2017). Retrieved 3 July 2017. ^ Graham, William (December 14, 2017).
Retrieved January 15, 2018. Cooper, Ben (April 2, 2018). Retrieved April 4, 2018.
Clark, Stephen (3 August 2018). Spaceflight Now. Retrieved 30 August 2018. December 2018.
^ Pietrobon, Steven (November 16, 2018). Retrieved November 16, 2018. August 9, 2018.
Retrieved August 16, 2018. Siceloff, Steven (2015-07-01).
Retrieved 2016-06-19. In the updated plan, SpaceX would launch its uncrewed flight test (DM-1), refurbish the flight test vehicle, then conduct the in-flight abort test prior to the crew flight test. Using the same vehicle for the in-flight abort test will improve the realism of the ascent abort test and reduce risk. Spaceflight 101.
2 April 2018. Retrieved 6 April 2018. ^ (Press release). January 14, 2016. Retrieved August 24, 2017. External links Wikimedia Commons has media related to.