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My compliments to SP Guide Publications for informative and credible reportage on contemporary aerospace issues over the past six decades.

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From Moon to Mars with Apollo & Artemis

NASA is gearing up to begin a new era of deep space exploration by returning humans to moon after about half a century, as a step to go to Mars and beyond.

August 6, 2021 By Ayushee Chaudhary Photo(s): By NASA
(Left to right) Apollo 15 astronauts David R. Scott and James B. Irwin salute the American flag

Fifty years ago, a historic feat was achieved that expanded the horizons of space exploration for humans. Apollo 15, the seventh Apollo mission and the first of three Apollo “J” missions by NASA (National Aeronautics and Space Administration) was launched with Commander David R. Scott, Command Module Pilot Alfred M. Worden, and Lunar Module Pilot James B. Irwin for the Moon expedition over longer duration with enhanced scientific instrument. Apollo 15 was the first mission where astronauts used the Apollo Lunar Surface Drill (ALSD) and the Lunar Roving Vehicle (LRV).

Building on this mission, NASA is now preparing to launch the first module of its Artemis Program, a mission with which NASA plans to land the first woman and the first person of color on the Moon to explore more of the lunar surface.

During Apollo 15, Scott and Irwin landed on the Moon. They used the ALSD at the location where several scientific instruments were set up during the nearly 67 hours for which the astronauts were on the lunar surface. The tool was a rotary-percussive drill that used a combined motion that hammered a rotating drill bit into the surface to create a hole. The overall purpose of gathering core samples was part of NASA’s lunar geology studies to learn more about the composition of the Moon and discover more about its history by looking at different kinds of rocks, including some from below the surface, NASA informed.

The Apollo program allowed 12 American astronauts to walk on the moon with a total of 11 spaceflights conducted during the program.

Scott and Irwin touched down at the Hadley-Apennine site and conducted four spacewalks, including three excursions using the LRV, for a combined total of 19 hours. They also deployed an experiment package and collected 170 pounds of rock and soil samples to return on Earth. With a brief test drive of LRV or Rover, Scott also became the first human to drive on the Moon.

The Apollo program allowed 12 American astronauts to walk on the moon. A total of 11 spaceflights were conducted during the program, the first four of these tested the equipment used in the Apollo Program and six out of the remaining seven flights landed on the lunar surface. The first Apollo flight happened in 1968, the first moon landing in 1969 and the last moon landing took place in 1972.

(Left) David R. Scott maneuvering the Rover at the start of the second lunar traverse and (Right) The Rover’s final parked position at the end of the third lunar excursion

Now, NASA is gearing up to return to the Moon with the Artemis missions. The program features a new drill headed to the lunar surface as a commercially delivered payload via the Commercial Lunar Payload Services initiative. The Regolith and Ice Drill for Exploring New Terrain (TRIDENT) is key to locating ice and other resources on the Moon. Furthermore, TRIDENT is a rotary-percussive drill, but unlike its Apollo counterpart, TRIDENT does not require astronauts to work it manually.

As a part of Artemis, there will even be Polar Resources Ice Mining Experiment-1 (PRIME-1), the inaugural in-situ resource utilisation demonstration on the Moon. For the first time, NASA will robotically sample and analyse for ice from below the surface. PRIME-1 will be utilizing TRIDENT to drill in a single location at a site with a high probability of presence of water (in liquid or ice form). It will drill down about 3 feet (1 meter) below the surface, each time bringing up samples that NASA will analyse with a scientific instrument – the Mass Spectrometer observing lunar operations (MSolo).

As a part of Artemis, there will even be Polar Resources Ice Mining Experiment-1 (PRIME-1), the inaugural in-situ resource utilisation demonstration on the Moon.

The Hadley Rille, which is a long, deep channel-like gorge in the Moon’s surface, situated at the base of the Apennines Mountains,is north of the Moon’s equator where Apollo 15 landed while the PRIME-1’s destination is the Moon’s South Pole – a location where NASA has previously detected water from space.

About a year after the PRIME-1 mission, NASA plans to send an exploratory rover – Volatiles Investigating Polar Exploration Rover, or VIPER – to the surface. NASA’s first mobile robotic mission to the Moon, VIPER will carry a TRIDENT drill and scientific instruments that will enable it to directly analyse water ice on the surface and subsurface of the Moon at varying depths and temperature conditions. VIPER is scheduled to explore multiple sites on the lunar South Pole for about 100 days.

Orion Spacecraft for Artemis I Prepared for Thermal Test.

Additionally, NASA has a new rocket for Artemis, the Space Launch System (SLS), which will carry the Orion spacecraft on top. Orion that can carry up to four astronauts, will orbit the Moon. A spaceship, called the Gateway, will be orbiting the Moon like the Moon orbits Earth. Orion will connect to the Gateway and astronauts will go from Orion to the Gateway. This is where astronauts will live while orbiting the Moon and take trips to get to work on the lunar surface. Then they will return to Gateway. When all of their work is finished, the crew will return to Earth aboard Orion, the space agency had stated.

Through Artemis, NASA affirmed that it is preparing to send new capabilities to the Moon that will enable people to stay there for longer than ever before, because learning how to find and use water would be a key to living and working on the Moon and other deep space destinations. Artemis’ Moon mission, scheduled to take humans on our natural satellite is especially a step to taking humans to Mars.

Artemis’s first stage is expected this year and the landing of the first crew is scheduled for 2024.

“As we prepare to send humans forward to the Moon and ultimately to Mars,” former NASA Administrator Jim Bridenstine had remarked about the program, “the scope and nature of the Artemis program will build on our partnerships in low-Earth orbit and result in NASA leading the largest and most diverse international space effort in history to the Moon.”

In one of the episodes of “Houston We Have a Podcast”, the official podcast of the NASA Johnson Space Center from Houston, Nujoud Merancy, Chief of the Exploration Mission Planning Office stated that while Apollo was more about getting to the Moon as fast as one can, with Artemis, the focus is on becoming sustainable, which means to be able to explore for longer durations, potentially build bases, but also demonstrate things needed to go to Mars. “And all of the things you need to go to Mars, involve much longer durations, surface stays on Mars are basically 30 days to 6 months, so you need to be able to do long duration stays and have a long-term buildup of stuff,” she added. Another difference is that while for Apollo it was an equatorial orbit, for Artemis it will be a polar lunar orbit, which means it goes North - South instead of East - West, around the Moon.

The core stage of the Space Launch System (SLS) rocket for NASA’s Artemis I mission has been placed on the mobile launcher at Kennedy Space Center in Florida.

Nevertheless, Artemis is created on the framework of its twin sister from half a century ago as various things from Apollo are being reused or improvised upon. “I mean the enormous vehicle assembly building at Kennedy Space Center, was built for Apollo. It stacked the shuttle, it launched all of the U.S. elements to the space station, and now it's going to stack SLS and Orion for Artemis. So, even some of those features we have from Apollo, are still around helping us out today, and the physics didn't change. So how you design a trajectory to the Moon, a lot of that math is exactly the same, and we're just using it differently, Merancy added, hoping that once we fly Artemis 3, it will only be the first of many flights to the Moon and then Mars.

Artemis’s first stage is expected this year and the landing of the first crew is scheduled for 2024. The program will take place in three stages:

  • Artemis 1 will launch SLS and Orion with no astronauts.
  • Artemis 2 will have a crew. They will circle past the Moon and return to Earth.
  • Artemis 3 will send a crew with the first woman and the next man to land on the Moon.

Being the sole natural satellite of our planet and the closest celestial body to earth, the moon has been of interest of space enthusiasts and a window to deeper space exploration. Going ahead, as plans surface about having a base on the moon and discovering its minerals resources, more and more moon expeditions are expected. About eight have already launched mission to the moon. Here’s a timeline of all the moon missions that have taken place globally till now:

Lunar Exploration Timeline

Lunar Missions

 

|
1959
|
|-- Luna 1 - Jan 2, 1959 - Flyby
|-- Pioneer 4 - Mar 3, 1959 - Flyby
|-- Luna 2 - Sep 12, 1959 - Impact
|-- Luna 3 - Oct 4, 1959 - Probe
Luna 3
|
1961
|
Ranger 1
|-- Ranger 1 - Aug 23, 1961 - Attempted Test Flight
|-- Ranger 2 - Nov 18, 1961 - Attempted Test Flight
|
1962
|
Ranger 3
|-- Ranger 3 - Jan 26, 1962 - Attempted Impact
|-- Ranger 4 - Apr 23, 1962 - Impact
|-- Ranger 5 - Oct 18, 1962 - Attempted Impact
|
1963
|
|-- Luna 4 - Apr 2, 1963 - Flyby
|
1964
|
Ranger 6
|-- Ranger 6 - Jan 30, 1964 - Impact
|-- Ranger 7 - Jul 28, 1964 - Impact
|
1965
|
Ranger 8
|-- Ranger 8 - Feb 17, 1965 - Impact
|-- Ranger 9 - Mar 21, 1965 - Impact
|-- Luna 5 - May 9, 1965 - Impact
|-- Luna 6 - Jun 8, 1965 - Attempted Lander
|-- Zond 3 - Jul 18, 1965 - Flyby
|-- Luna 7 - Oct 4, 1965 - Impact
|-- Luna 8 - Dec 3, 1965 - Impact
|
1966
|
Luna 9
|-- Luna 9 - Jan 31, 1966 - Lander
|-- Luna 10 - Mar 31, 1966 - Orbiter
|-- Surveyor 1 - May 30, 1966 - Lander
|-- Explorer 33 - July 1, 1966 - Attempted Orbiter
|-- Lunar Orbiter 1 - Aug 10, 1966 - Orbiter
|-- Luna 11 - Aug 24, 1966 - Orbiter
|-- Surveyor 2 - Sep 20, 1966 - Attempted Lander
|-- Luna 12 - Oct 22, 1966 - Orbiter
|-- Lunar Orbiter 2 - Nov 6, 1966 - Orbiter
|-- Luna 13 - Dec 21, 1966 - Lander
|
1967
|
Lunar Orbiter 3
|-- Lunar Orbiter 3 - Feb 4, 1967 - Orbiter
|-- Surveyor 3 - Apr 17, 1967 - Lander
|-- Lunar Orbiter 4 - May 8, 1967 - Orbiter
|-- Surveyor 4 - Jul 14, 1967 - Attempted Lander
|-- Explorer 35 (IMP-E) - Jul 19, 1967 - Orbiter
|-- Lunar Orbiter 5 - Aug 1, 1967 - Orbiter
|-- Surveyor 5 - Sep 8, 1967 - Lander
|-- Surveyor 6 - Nov 7, 1967 - Lander
|
1968
|
Surveyor 7
|-- Surveyor 7 - Jan 7, 1968 - Lander
|-- Luna 14 - Apr 7, 1968 - Orbiter
|-- Zond 5 - Sep 15, 1968 - Return Probe
|-- Zond 6 - Nov 10, 1968 - Return Probe
|-- Apollo 8 - Dec 21, 1968 - Crewed Orbiter
|
1969
|
Apollo 10
|-- Apollo 10 - May 18, 1969 - Orbiter
|-- Luna 15 - Jul 13, 1969 - Orbiter
|-- Apollo 11 - Jul 16, 1969 - Crewed Landing
|-- Zond 7 - Aug 7, 1969 - Return Probe
|-- Apollo 12 - Nov 14, 1969 - Crewed Landing
|
1970
|
Apollo 13
|-- Apollo 13 - Apr 11, 1970 - Crewed Landing (aborted)
|-- Luna 16 - Sep 12, 1970 - Sample Return
|-- Zond 8 - Oct 20, 1970 - Return Probe
|-- Luna 17 - Nov 10, 1970 - Rover
|
1971
|
Apollo 15
|-- Apollo 14 - Jan 31, 1971 - Crewed Landing
|-- Apollo 15 - Jul 26, 1971 - Crewed Landing
|-- Luna 18 - Sep 2, 1971 - Impact
|-- Luna 19 - Sep 28, 1971 - Orbiter
|
1972
|
Apollo 16
|-- Luna 20 - Feb 14, 1972 - Sample Return
|-- Apollo 16 - Apr 16, 1972 - Crewed Landing
|-- Apollo 17 - Dec 7, 1972 - Crewed Landing
|
1973
|
Luna 21
|-- Luna 21 - Jan 8, 1973 - Rover
|-- Explorer 49 (RAE-B) - Jun 10, 1973 - Orbiter
|
1974
|
Luna 22
|-- Luna 22 - Jun 2, 1974 - Orbiter
|-- Luna 23 - Oct 28, 1974 - Lander
|
1976
|
Luna 24
|-- Luna 24 - Aug 14, 1976 - Sample Return
|
1990
|
Hiten
|-- Hiten - Jan 24, 1990 - Flyby and Orbiter
|
1994
|
Clementine
|-- Clementine - Jan 25, 1994 - Orbiter
|
1997
|
|-- AsiaSat 3/HGS-1 - Dec 24, 1997 - Lunar Flyby
|
1998
|
Lunar Prospector
|-- Lunar Prospector - Jan 7, 1998 - Orbiter
|
2003
|
SMART 1
|-- SMART 1 - Sep 27, 2003 - Lunar Orbiter
|
2007
|
Kaguya (SELENE)
|-- Kaguya (SELENE) - Sep 14, 2007 - Lunar Orbiter
|-- Chang'e 1 - Oct 24, 2007 - Lunar Orbiter
|
2008
|
Chandrayaan-1
|-- Chandrayaan-1 - Oct 22, 2008 - Lunar Orbiter
|
2009
|
Lunar Reconnaissance Orbiter
|-- Lunar Reconnaissance Orbiter - June 17, 2009 - Lunar Orbiter
|-- LCROSS - June 17, 2009 - Lunar Orbiter and Impactor
|
2010
|
|-- Chang'e 2 - Oct 1, 2010 - Lunar Orbiter
|
2011
|
Gravity Recovery And Interior Laboratory (GRAIL)
|-- Gravity Recovery And Interior Laboratory (GRAIL) - Sep 10, 2011 - Lunar Orbiter
|
2013
|
Chang'e 3
|-- Lunar Atmosphere and Dust Environment Explorer (LADEE) - Sep 6, 2013 - Lunar Orbiter
|-- Chang'e 3 - 01 December 2013 - Lunar Lander and Rover
|
2014
|
Chang'e 5 Test Vehicle - 23 October 2014 - Lunar Flyby and Return
|
2018
|
Chang'e 4
Queqiao - 20 May 2018 - CNSA (China) Lunar Relay Satellite
|-- Chang'e 4 - 7 December 2018 - CNSA (China) Lunar Farside Lander and Rover
|
2019
|
Chandrayaan 2
Beresheet - 22 February 2019 - SpaceIL and IAI (Israel) Lunar Lander
Chandrayaan 2 - April 2019 - ISRO (India) Moon Orbiter, Lander, and Rover
|
2020
|
Chang'e 5
Chang'e 5 - 23 November 2020 - CNSA (China) Lunar Sample Return Mission
|
2021
|
Luna 25
Luna 25 - 1 October 2021 - Russian Lunar Lander
CAPSTONE - NET 20 October 2021 - Lunar Navigation Test Orbiter
LunaH-Map - Fall 2021 - Lunar Orbiting CubeSat
Lunar Flashlight - Fall 2021 - Lunar Orbiting CubeSat
Lunar Ice Cube - Fall 2021 - Lunar Orbiting CubeSat
Lunar InfraRed imaging (LunIR) - Fall 2021 - Lunar Flyby and Technology Test CubeSat
Cislunar Explorers - Fall 2021 - Lunar Technology Test CubeSats
OMOTENASHI - Fall 2021 - JAXA (Japan) Lunar Lander CubeSat
EQUULEUS - Fall 2021 - JAXA (Japan) L2 Orbit Lunar CubeSat
|
2022
|
SLIM
SLIM - January 2022 - JAXA (Japan) Lunar Lander
Peregrine Mission 1 - Early 2022 - Lunar Lander
IM-1 - Early 2022 - Lunar Lander
Korea Pathfinder Lunar Orbiter - 1 August 2022 - KARI (South Korea) Lunar Orbiter
XL-1 Lander - December 2022 - Lunar Lander
Prime 1 - December 2022 - Lunar Lander
|
2023
|
VIPER
VIPER - Late 2023 - Lunar South Pole Rover
|
2024 on
|
Lunar Trailblazer
Chang'e 7 - 2024 - CNSA (China) Lunar Survey Mission
Chang'e 6 - 2024 - CNSA (China) Lunar Sample Return Mission
Lunar Trailblazer - 1 February 2024 - Lunar Orbiting Small Satellite
Chang'e 8 - TBD - CNSA (China) Lunar Technology Test
|

 

The launch of Gemini X

This year NASA also marked 55 years of Gemini X that was part of NASA’s Gemini Program, an early NASA human spaceflight program that helped the agency prepare for the Apollo lunar landings. Ten crew flew missions on the two-man Gemini spacecraft in 1965 and 1966. The primary goals of Project Gemini included proving the techniques required for the Apollo Program.

The first seven Gemini missions in 1965 and early 1966 demonstrated the spacecraft’s space worthiness, the feasibility of spacewalking, extended flight durations to 14 days, and demonstrated space rendezvous and docking techniques. The goals of the three-day Gemini X mission included docking with one target vehicle, conducting a rendezvous with a second target, and performing two spacewalks.