LunarWSN: A Wireless Sensor Network for In-Situ Lunar Water Ice Detection

The future lunar sustainable habitation will be resource-intensive. Taking advantage of local resources on the lunar surface is the most effective way to reduce the cost and risk for future lunar missions. Water is one of the most important resources that can provide not only drinking water for crew...

Full description

Bibliographic Details
Main Author: Liu, Fangzheng
Other Authors: Paradiso, Joseph A.
Format: Thesis
Published: Massachusetts Institute of Technology 2022
Online Access:https://hdl.handle.net/1721.1/142844
_version_ 1811083288179113984
author Liu, Fangzheng
author2 Paradiso, Joseph A.
author_facet Paradiso, Joseph A.
Liu, Fangzheng
author_sort Liu, Fangzheng
collection MIT
description The future lunar sustainable habitation will be resource-intensive. Taking advantage of local resources on the lunar surface is the most effective way to reduce the cost and risk for future lunar missions. Water is one of the most important resources that can provide not only drinking water for crews, but also fuel for rockets and spacecrafts. To date, most of our knowledge of lunar water distribution is from remote sensing, which is vague (kilometer-scale resolution). More in situ measurements are indispensable to acquire meter-scale resolution knowledge of lunar water distribution. The current main force of in situ planetary explorations is a single high-cost rover that can provide merely a series of single-point measurements or a lander without mobility that can only measure surrounding areas. Neither rovers nor landers can work in dangerous areas where data of interest often exists. Wireless Sensor Networks (WSNs) are a technology that is typically dedicated to collecting in situ sensing data from regions of interest. A WSN is composed of multiple sensor nodes that are relatively small, light, and easy to deploy. The sensor nodes are designed based on a variety of missions and distinctly different environments. In this thesis, we present a WSN sensor node designed for measuring the water content in lunar soil simulant. The sensor node is designed to be ballistically deployed from a rover or lander to regions of interest that might be unsafe for rovers or landers. The sensor nodes can create an expandable WSN, that we term LunarWSN. The LunarWSN sensor nodes can make simultaneous observations from multiple positions. Each node is a miniaturized, modular design, whose sensor payload can be customized to different scientific missions. After anchoring on the lunar surface, the sensor nodes can localize themselves, set up a wireless communication network, and start the sensing operation — the measurements of permittivity of the lunar soil, which infers water content.
first_indexed 2024-09-23T12:30:40Z
format Thesis
id mit-1721.1/142844
institution Massachusetts Institute of Technology
last_indexed 2024-09-23T12:30:40Z
publishDate 2022
publisher Massachusetts Institute of Technology
record_format dspace
spelling mit-1721.1/1428442022-06-01T03:22:42Z LunarWSN: A Wireless Sensor Network for In-Situ Lunar Water Ice Detection Liu, Fangzheng Paradiso, Joseph A. Program in Media Arts and Sciences (Massachusetts Institute of Technology) The future lunar sustainable habitation will be resource-intensive. Taking advantage of local resources on the lunar surface is the most effective way to reduce the cost and risk for future lunar missions. Water is one of the most important resources that can provide not only drinking water for crews, but also fuel for rockets and spacecrafts. To date, most of our knowledge of lunar water distribution is from remote sensing, which is vague (kilometer-scale resolution). More in situ measurements are indispensable to acquire meter-scale resolution knowledge of lunar water distribution. The current main force of in situ planetary explorations is a single high-cost rover that can provide merely a series of single-point measurements or a lander without mobility that can only measure surrounding areas. Neither rovers nor landers can work in dangerous areas where data of interest often exists. Wireless Sensor Networks (WSNs) are a technology that is typically dedicated to collecting in situ sensing data from regions of interest. A WSN is composed of multiple sensor nodes that are relatively small, light, and easy to deploy. The sensor nodes are designed based on a variety of missions and distinctly different environments. In this thesis, we present a WSN sensor node designed for measuring the water content in lunar soil simulant. The sensor node is designed to be ballistically deployed from a rover or lander to regions of interest that might be unsafe for rovers or landers. The sensor nodes can create an expandable WSN, that we term LunarWSN. The LunarWSN sensor nodes can make simultaneous observations from multiple positions. Each node is a miniaturized, modular design, whose sensor payload can be customized to different scientific missions. After anchoring on the lunar surface, the sensor nodes can localize themselves, set up a wireless communication network, and start the sensing operation — the measurements of permittivity of the lunar soil, which infers water content. S.M. 2022-05-31T13:32:18Z 2022-05-31T13:32:18Z 2021-09 2022-05-25T15:55:11.041Z Thesis https://hdl.handle.net/1721.1/142844 In Copyright - Educational Use Permitted Copyright MIT http://rightsstatements.org/page/InC-EDU/1.0/ application/pdf Massachusetts Institute of Technology
spellingShingle Liu, Fangzheng
LunarWSN: A Wireless Sensor Network for In-Situ Lunar Water Ice Detection
title LunarWSN: A Wireless Sensor Network for In-Situ Lunar Water Ice Detection
title_full LunarWSN: A Wireless Sensor Network for In-Situ Lunar Water Ice Detection
title_fullStr LunarWSN: A Wireless Sensor Network for In-Situ Lunar Water Ice Detection
title_full_unstemmed LunarWSN: A Wireless Sensor Network for In-Situ Lunar Water Ice Detection
title_short LunarWSN: A Wireless Sensor Network for In-Situ Lunar Water Ice Detection
title_sort lunarwsn a wireless sensor network for in situ lunar water ice detection
url https://hdl.handle.net/1721.1/142844
work_keys_str_mv AT liufangzheng lunarwsnawirelesssensornetworkforinsitulunarwatericedetection