Semiconductors in Space: Data Analysis of Microgravity's Impact on Crystal Formation

Comprehensive data analysis on crystal growth in microgravity is a requisite to inform understanding of prior work. Our research constructed and analyzed a database containing data gathered from research focusing on semiconductors grown in microgravity. Data curation spanned multiple decades, countries, and semiconductor materials. All relevant reported information was recorded in the database, notably data regarding the metrics used to determine the impact space had on crystal growth: size, structure, uniformity, and performance. After data cleaning and data processing, the database was organized and readied for analysis. Data analysis was performed using RStudio and SciKit-learn. RStudio was employed for data visualization to determine patterns and outcomes. SciKit-Learn was used for correlation and binomial tests to ascertain any significant correlations between success and metrics. Several models were trained to determine if any data recorded can accurately predict whether a compound’s crystal formation will improve if grown in microgravity conditions. The key finding was that microgravity has a significant impact on crystal growth, showing improvements in all metrics listed above. Data analysis in this field is imperative to improve mass production, ability, and quality of semiconductors. The semiconductor industry is quickly growing in reach and demand, and the impact of this industry on aerospace, defense, technical applications, and AI requires data-driven information to drive investment in microgravity semiconductor crystal growth.

Publication Details

Journal
Digital Commons @ Butler University (Butler University)
Published
2025-05-01
Primary Topic
Spacecraft Design and Technology
Type
article
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article

Semiconductors in Space: Data Analysis of Microgravity's Impact on Crystal Formation

Digital Commons @ Butler University (Butler University)
Spacecraft Design and Technology
article

Semiconductors in Space: Data Analysis of Microgravity's Impact on Crystal Formation

article en

Abstract

Comprehensive data analysis on crystal growth in microgravity is a requisite to inform understanding of prior work. Our research constructed and analyzed a database containing data gathered from research focusing on semiconductors grown in microgravity. Data curation spanned multiple decades, countries, and semiconductor materials. All relevant reported information was recorded in the database, notably data regarding the metrics used to determine the impact space had on crystal growth: size, structure, uniformity, and performance. After data cleaning and data processing, the database was organized and readied for analysis. Data analysis was performed using RStudio and SciKit-learn. RStudio was employed for data visualization to determine patterns and outcomes. SciKit-Learn was used for correlation and binomial tests to ascertain any significant correlations between success and metrics. Several models were trained to determine if any data recorded can accurately predict whether a compound’s crystal formation will improve if grown in microgravity conditions. The key finding was that microgravity has a significant impact on crystal growth, showing improvements in all metrics listed above. Data analysis in this field is imperative to improve mass production, ability, and quality of semiconductors. The semiconductor industry is quickly growing in reach and demand, and the impact of this industry on aerospace, defense, technical applications, and AI requires data-driven information to drive investment in microgravity semiconductor crystal growth.

Digital Commons @ Butler University (Butler University)
Industry, innovation and infrastructure
Openalex Percentile: Top 35%
Spacecraft Design and Technology
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