Mars Sample Recovery Helicopter
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The ''Mars Sample Recovery Helicopters'' are a pair of
robotic Robotics is an interdisciplinarity, interdisciplinary branch of computer science and engineering. Robotics involves design, construction, operation, and use of robots. The goal of robotics is to design machines that can help and assist human ...
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helicopter A helicopter is a type of rotorcraft in which lift and thrust are supplied by horizontally spinning rotors. This allows the helicopter to take off and land vertically, to hover, and to fly forward, backward and laterally. These attributes ...
s being developed by the engineers of the American company AeroVironment Inc. and proposed in March 2022 as a means of delivering Martian soil samples from the sample depots made by the ''Perseverance'' rover to the location of the Sample Retrieval Lander (SRL) that will load these samples onto the Mars Ascent Vehicle (MAV), which, in accordance with the
NASA-ESA Mars Sample Return The NASA-ESA Mars Sample Return (MSR) is a proposed Mars sample return mission to collect Martian rock and soil samples in 43 small, cylindrical, pencil-sized, titanium tubes and return them to Earth around 2033. The NASA-ESA plan, approved ...
program, will deliver them to low Martian orbit for future return to earth.


Background of the project

While Perseverance is busy collecting and caching samples on Mars, scientists and technicians at JPL are developing helicopters that will retrieve them. The plan flashed in June 2022, when MSR campaign needed a helicopter to recover sample tubes this bring the sample recovery helicopters into play.


Design

The Martian Sample recovery helicopters are being developed by AeroVironment, Inc. based on technology they previously demonstrated on the '' Ingenuity'' coaxial helicopter as a part of NASA's ''Perseverance'' rover. Unlike the ''Ingenuity'' "technology demonstrator", the Sample Return Helicopters have a payload capacity of , a small manipulator arm with a two-fingered gripper, and self-propelled, wheeled landing gear (each being ~ wide, with an outer diameter of ~), enabling them to roll up, grab a sample, and fly to the return vehicle. Key components were modified based on lessons learned from ''Ingenuity''. Flight aspects, including speed, flight time, range are the same as it is on Ingenuity. The
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of the device will increase, for which the area of the solar battery and the capacity of its batteries will be increased. The control system of the upper screw will be somewhat simplified, and the engine power will increase. The overall dimensions of the helicopter will be slightly larger. In total, it is planned to send two such machines to Mars. Along with this, high performance processors enabling autonomy, unprecedented mobility through both flying and driving, and a true manipulation capability with a robot hand, can enable much more than sample tube retrieval. The helicopters will have a range of , but plans call for the lander to be within of the "depot" where the samples will be deposited. Each sample tube is about 150 grams.


Concept

The intermediate transportation of the collected samples on the surface of Mars was initially undertaken by the
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(ESA), which included this project in its
ExoMars ExoMars (Exobiology on Mars) is an astrobiology programme of the European Space Agency (ESA). The goals of ExoMars are to search for signs of past life on Mars, investigate how the Martian water and geochemical environment varies, investigate ...
program. The
Mars 2020 Mars 2020 is a Mars rover mission forming part of NASA's Mars Exploration Program that includes the rover ''Perseverance'', the small robotic, coaxial helicopter '' Ingenuity'', and associated delivery vehicles. Mars 2020 was launched from Ear ...
mission landed the ''Perseverance'' rover, which is storing samples to be returned to Earth later. However, due to repeated postponements, already in November 2021, NASA came to the need to postpone the delivery of samples and assess the risks inherent in the delivery scheme itself in July 2022. The decision was based on the success of ''Ingenuity''. The
NASA-ESA Mars Sample Return The NASA-ESA Mars Sample Return (MSR) is a proposed Mars sample return mission to collect Martian rock and soil samples in 43 small, cylindrical, pencil-sized, titanium tubes and return them to Earth around 2033. The NASA-ESA plan, approved ...
mission will not include the ESA Sample Fetch Rover and its associated second lander, but instead use a single lander carrying the helicopters and the ascent rocket that will take the samples to an orbiter, from where they will be launched back to Earth. Mission planners intend that ''Perseverance'' itself will retrieve samples that it previously cached on the surface and drive them to the ascent rocket, given its expected longevity. The helicopters, which will be slightly heavier than ''Ingenuity'', would be used as a backup if ''Perseverance'' would be unable to perform the task.


Sample Retrieval process

Recovering a sample will span over four sols (Martian day). On first sol, it from the vicinity of SRL to land near a sample tube. On the next sol, the helicopter will drive to that tube and grab it using its tiny robotic arm. On third sol, it will return back to SRL, and on the last of the four sols its drives into position and releases the sample tube so that the lander's ESA-built sample transfer arm can place tube onto the sample return canister onboard the Mars Ascent Vehicle placed on its deck. The Sample Recovery Helicopters would take off and land at predetermined sites, or helipads, that have been found suitable and safe, and would use in-flight, map-based navigation to reach the known locations of sample tubes left on the surface.


References


External links

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