Open Mass Spectrometer He-3 Mapping for Targeted Regolith Mining
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Current methods for identifying helium-3 (He-3) concentrations in mining sites are inefficient, leading to unnecessary excavation and resource wastage, as they lack precise pre-mining assessments, affecting the economic viability of mining operations.
Innovation Solution
A mass spectrometer system integrated with a mobile carrier and a thermal neutron detection system, capable of operating in low-pressure environments, is used to detect He-3 concentrations by emitting and detecting thermal neutrons, with a neutron shield to isolate and measure backscattered neutrons, allowing for efficient mapping of He-3-rich areas.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If conventional exploration methods are used to identify He-3 concentrations, then mining operations can proceed, but the assessment is imprecise leading to unnecessary excavation and resource wastage
Solution Approach 1:
The patent replaces conventional mechanical exploration methods (excavation, physical sampling) with a mass spectrometer-based detection system that uses thermal neutron emission and detection to identify He-3 concentrations non-invasively. This substitution eliminates the need for preliminary excavation while providing precise measurements, directly resolving the contradiction between measurement precision and resource wastage
Solution Approach 2:
The patent introduces thermal neutrons as an intermediary substance to detect He-3 concentrations. The mass spectrometer emits thermal neutrons that interact with He-3 atoms in the regolith, and the backscattered neutrons provide information about He-3 concentration without requiring direct contact or excavation of the material
2Productivity
If comprehensive mining site assessment is conducted using traditional methods, then all areas can be evaluated, but the process is time-consuming and expensive
Solution Approach 1:
The mass spectrometer system enables rapid, non-contact detection of He-3 concentrations across mining sites, replacing time-consuming mechanical excavation and laboratory analysis. The system can quickly scan and map He-3 distribution, significantly reducing assessment time while improving productivity by providing immediate actionable data
Solution Approach 2:
The patent performs preliminary assessment of He-3 concentrations before any mining operations begin. By using the mass spectrometer to map He-3 distribution in advance, the system identifies high-concentration target areas, allowing mining operations to focus resources efficiently and avoid wasting time on low-yield areas
3Measurement precision
If He-3 concentration mapping is performed accurately, then high-yield regions can be targeted, but the detection system complexity increases
Solution Approach 1:
The mass spectrometer system performs multiple functions: it emits thermal neutrons, detects backscattered neutrons, analyzes mass-to-charge ratios of ionized particles, and generates concentration maps. This multi-functionality achieves accurate He-3 mapping while consolidating what would otherwise require multiple separate systems into a single integrated device
Solution Approach 2:
The use of thermal neutrons as an intermediary simplifies the detection mechanism. Instead of requiring direct interaction with He-3 atoms, the system detects backscattered neutrons that have interacted with He-3, providing accurate concentration data through a indirect but simpler measurement approach
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
This approach enables precise identification of He-3 concentrations, optimizing mining efforts by targeting high-yield regions, reducing resource wastage and enhancing the economic viability of mining operations.
Implementation Method 1
a thermal neutron source and a thermal neutron detector. More specifically, the thermal neutron source can comprise a thermal neutron emitter encapsulated in a hydrogen rich material, wherein the thermal neutron source is configured to emit thermal neutrons in all directions. The thermal neutron detector can be configured to detect a concentration of the thermal neutrons
Implementation Method 2
The mass spectrometer further comprises an ionizer adjacent to the exit port, wherein the mass spectrometer ionizer is configured to ionize base-particles (such as atoms or single molecules) in a portion of the base-particle pathway
Implementation Method 3
The mass spectrometer further comprises a detector housing that comprises the detector plate and an angled housing having split-pole magnets that are configured to direct the base-particles at an angle β+/−an offset (depending on the mass of the base-particle)
Data Source
AI summary
Disclosed is a He-3 detector arrangement that generally comprises a mass spectrometer that has an intake funnel configured to receive (sniff out) He-3 through an intake port directly from an open environment. The intake funnel is configured to direct the He-3 into the mass spectrometer. The arrangement further comprises a heating element configured to liberate the He-3 from regolith via heat. A mobile carrier is configured to position the intake port the regolith to obtain samples of the He-3.