PapersFlow Research Brief
Space Technology and Applications
Research Guide
What is Space Technology and Applications?
Space Technology and Applications is a research cluster encompassing advancements in microelectronics and nanotechnologies for space systems, including SpaceWire communication, proton microscopy, high-energy electron imaging, smart dust, system integration, and spacecraft networks.
This field includes 9,872 works focused on innovations in digital technologies adapted for space environments. Key areas cover radiation effects on electronics, CubeSat deployments, and proton radiography techniques. Research addresses challenges in spacecraft networks and high-energy imaging under space conditions.
Topic Hierarchy
Research Sub-Topics
SpaceWire Communication Protocols
This sub-topic examines the design, implementation, and performance optimization of SpaceWire networks for high-speed data transfer in spacecraft systems. Researchers study protocol enhancements, fault tolerance, and interoperability with other space avionics standards.
Radiation Effects on Space Electronics
This sub-topic investigates single event effects, total ionizing dose, and displacement damage in microelectronics exposed to space radiation environments. Researchers develop hardening techniques and predictive models for component reliability.
Proton Radiography for Materials Analysis
This sub-topic covers high-resolution imaging techniques using proton beams to study material defects and dynamics under extreme conditions. Researchers apply it to non-destructive testing of aerospace components and shock physics experiments.
Smart Dust Sensor Networks
This sub-topic explores miniaturized wireless sensor nodes for distributed environmental monitoring in space applications. Researchers focus on power efficiency, self-organization, and integration into planetary exploration systems.
CubeSat System Integration
This sub-topic addresses modular design, subsystem interfacing, and thermal management for small satellite platforms. Researchers analyze statistical trends, failure modes, and standardization for constellations.
Why It Matters
Space Technology and Applications enables reliable electronics in harsh orbital environments, as detailed in 'The space radiation environment for electronics' where Stassinopoulos and Raymond (1988) describe trapped and transiting charged particles affecting spacecraft components, with over 360 citations influencing radiation hardening standards. CubeSats have proliferated, with Swartwout (2013) analyzing the first 100 launches in 'The First One Hundred CubeSats: A Statistical Look', demonstrating low-cost access to space that supports over 190 cited studies on small satellite missions for Earth observation and technology validation. Proton radiography, introduced by Koehler (1968) with 139 citations, provides high-contrast imaging for material inspection in space hardware development, applied in proton microscopy for non-destructive testing of components.
Reading Guide
Where to Start
'The space radiation environment for electronics' by Stassinopoulos and Raymond (1988) is the starting point for beginners because it provides foundational descriptions of charged particle effects on spacecraft electronics, cited 360 times as essential context for space technology challenges.
Key Papers Explained
Stassinopoulos and Raymond (1988) establish the radiation environment baseline in 'The space radiation environment for electronics', which Swartwout (2013) builds upon statistically in 'The First One Hundred CubeSats: A Statistical Look' by analyzing small satellites operating within that environment. Koehler (1968) complements this with imaging techniques in 'Proton Radiography', enabling diagnostics of radiation-impacted hardware. Mack (2011) connects semiconductor scaling from 'Fifty Years of Moore's Law' to miniaturized space electronics, while Cobb (1997) extends navigation resilience in 'GPS Pseudolites : Theory, Design, and Applications'.
Paper Timeline
Most-cited paper highlighted in red. Papers ordered chronologically.
Advanced Directions
Current work likely refines radiation models for next-generation CubeSats and integrates proton microscopy with SpaceWire for networked diagnostics, though no recent preprints are available.
Papers at a Glance
| # | Paper | Year | Venue | Citations | Open Access |
|---|---|---|---|---|---|
| 1 | The Second Machine Age: Work, Progress, and Prosperity in a Ti... | 2014 | Quantitative Finance | 1.7K | ✕ |
| 2 | Fifty Years of Moore's Law | 2011 | IEEE Transactions on S... | 606 | ✕ |
| 3 | Fundamental principles of optical lithography : the science of... | 2007 | — | 372 | ✕ |
| 4 | The space radiation environment for electronics | 1988 | Proceedings of the IEEE | 360 | ✕ |
| 5 | The First One Hundred CubeSats: A Statistical Look | 2013 | — | 190 | ✕ |
| 6 | Security controls in the ADEPT-50 time-sharing system | 1969 | — | 160 | ✓ |
| 7 | J-PAS: The Javalambre-Physics of the Accelerated Universe Astr... | 2014 | arXiv (Cornell Univers... | 148 | ✓ |
| 8 | Proton Radiography | 1968 | Science | 139 | ✕ |
| 9 | GPS Pseudolites : Theory, Design, and Applications | 1997 | Medical Entomology and... | 138 | ✕ |
| 10 | An Update on the NEXRAD Program and Future WSR-88D Support to ... | 1998 | Weather and Forecasting | 125 | ✕ |
Frequently Asked Questions
What is the space radiation environment for electronics?
The space radiation environment consists of charged particles in trapped and transiting forms, varying by spatial distribution and temporal changes. Stassinopoulos and Raymond (1988) outline its nature and magnitude relevant to spacecraft electronics effects. Internal radiation from isotopes also contributes to the total exposure.
How many CubeSats were analyzed in early statistical studies?
Swartwout (2013) examined the first 100 CubeSats in 'The First One Hundred CubeSats: A Statistical Look'. This work provides statistical insights into their design, launch, and mission outcomes. It highlights trends in small satellite technology adoption with 190 citations.
What is proton radiography?
Proton radiography uses energetic protons from accelerators to produce radiographs with high contrast but lower spatial resolution. Koehler (1968) demonstrated this in 'Proton Radiography', earning 139 citations. It applies to imaging dense materials relevant for space technology inspections.
What role does Moore's Law play in space microelectronics?
Moore's Law describes the doubling of integrated circuit components, originating from 1959 planar silicon transistor developments. Mack (2011) reviews fifty years of this trend in 'Fifty Years of Moore's Law', with 606 citations, impacting space system miniaturization. It drives advancements in spacecraft electronics density.
What are key applications of GPS pseudolites?
GPS pseudolites involve theory, design, and applications for signal augmentation. Cobb (1997) covers this in 'GPS Pseudolites : Theory, Design, and Applications', cited 138 times. They enhance positioning in space-constrained environments like planetary missions.
Open Research Questions
- ? How can microelectronics withstand long-term exposure to space radiation variations described by Stassinopoulos and Raymond (1988)?
- ? What statistical models predict CubeSat failure rates beyond the first 100 analyzed by Swartwout (2013)?
- ? Can proton radiography resolution be improved for real-time spacecraft component imaging as in Koehler (1968)?
- ? How do SpaceWire protocols scale for large spacecraft networks in radiation environments?
- ? What integration methods combine smart dust with high-energy electron imaging for distributed space sensing?
Recent Trends
The field maintains 9,872 works with sustained focus on radiation-hardened microelectronics and CubeSat statistics, as top-cited papers like Stassinopoulos and Raymond with 360 citations and Swartwout (2013) with 190 citations continue to anchor research.
1988No growth rate data or recent preprints reported in the last 6 months.
Keyword emphases persist on SpaceWire and spacecraft networks without new news coverage.
Research Space Technology and Applications with AI
PapersFlow provides specialized AI tools for Engineering researchers. Here are the most relevant for this topic:
AI Literature Review
Automate paper discovery and synthesis across 474M+ papers
Paper Summarizer
Get structured summaries of any paper in seconds
Code & Data Discovery
Find datasets, code repositories, and computational tools
AI Academic Writing
Write research papers with AI assistance and LaTeX support
See how researchers in Engineering use PapersFlow
Field-specific workflows, example queries, and use cases.
Start Researching Space Technology and Applications with AI
Search 474M+ papers, run AI-powered literature reviews, and write with integrated citations — all in one workspace.
See how PapersFlow works for Engineering researchers