Martian Buildings: Design loading

Soureshjani, Omid Karimzade; Massumi, Ali

doi:10.1016/j.asr.2022.10.066

Cited by 7 publications

(6 citation statements)

References 51 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…Equations ( 12 – 17 ) were used to calculate the penetration distance with the assumption of a blunt-nose shape for a meteoroid (Fig. 9 ) 24 , 32 : where is the penetration distance (ft), is the modified penetration distance (effect of low weight and high speed), is the s-number (dimensionless), is the nose performance coefficient (dimensionless), is the weight of the penetrator (lbs. ), is the cross-sectional area (in 2 ), is the impact velocity (fps), is the modification coefficient (for a low weight penetrator), is the length of the penetrator nose (in), is the actual nose length after the original (not blunted) length is reduced by the blunting, is the penetrator diameter (in), is the correction for edge effects in the concrete target, is the volumetric percentage of rebar (0% for non-reinforced concrete), is the concrete curing time (if , then set ), is the thickness of the target in penetrator diameters, is the unconfined compressive strength at test time (psi), is equal to 20 for reinforced concrete and 30 for no reinforcement and is the target width in penetrator calibers (if W1 > F, then = 1).…”

Section: Methodsmentioning

confidence: 99%

“…The most effective approach to examining such records is after elimination of background ambient and wind noise. Figure 2 a,b show over 6 h of calculated acceleration and frequency content recorded by SEIS through 24 December 2018 during a noisy sol 23 , 24 . Three frequencies of 2.6, 4.2 and 6.9 Hz continuously exist (Fig.…”

Section: Martian Structural Loadsmentioning

confidence: 99%

“…The calculated marsquake acceleration and frequency content of very broad band (VBB) sensor on February 10, 2019 were shown in Fig. 2 c,d, respectively 23 , 24 . Interestingly, this record featured a relatively silent background.…”

Section: Martian Structural Loadsmentioning

confidence: 99%

See 2 more Smart Citations

Martian buildings: structural forms using in-place sources

Soureshjani

Massumi

2022

Sci Rep

Self Cite

View full text Add to dashboard Cite

On Mars, structural loads and the low tensile strength of in-place Martian binders make existing solutions for Martian structures uneconomical because they are based on the terrestrial sources like inflatable units. Here we address this issue by introducing and analyzing three innovative structural forms in accordance with the structural engineering point of view using symmetric optimum parabolic rotated arch shapes and in-place waterless sulfur-based concrete. These forms minimize the tensile stresses under Martian structural loads. Probable Martian structural loads, including gravity, wind, marsquakes, asteroid and meteoroid impact loads and their effects have been investigated and calculated. The proposed models were analyzed under Martian structural loads using the implicit finite element method and the results were compared to two concrete structural forms from previous studies. The proposed models could tolerate Martian structural loads with complete elastic behavior and would significantly decrease the Martian colonization cost due to using Martian resources and reduce element importing from Earth.

show abstract

Section: Methodsmentioning

confidence: 99%

Section: Martian Structural Loadsmentioning

confidence: 99%

See 1 more Smart Citation

Martian buildings: structural forms using in-place sources

Soureshjani

Massumi

2022

Sci Rep

Self Cite

View full text Add to dashboard Cite

show abstract

“…Strategic Planning for Martian Colonization: The strategic importance of transportation in the broader context of Martian colonization was discussed in the work of [7], which examined the role of transport networks in supporting habitat expansion, resource distribution, and scientific exploration. Collaborative efforts between NASA, SpaceX, and international partners have underscored the need for interoperable and scalable transportation solutions that align with long-term settlement goals.…”

Section: Related Workmentioning

confidence: 99%

“…Furthermore, while the strategic importance of transportation for Martian colonization has been acknowledged [6,7], detailed strategic planning frameworks that integrate transportation systems with broader urban development and settlement expansion strategies on Mars are conspicuously absent. This gap underscores the necessity for interdisciplinary research that combines urban planning, transportation engineering, and sustainability studies to devise holistic development plans for Martian colonies.…”

Section: Related Workmentioning

confidence: 99%

Analysis of Transportation Systems for Colonies on Mars

de Curtò,

de Zarzà

2024

Sustainability

View full text Add to dashboard Cite

The colonization of Mars poses unprecedented challenges in developing sustainable and efficient transportation systems to support inter-settlement connectivity and resource distribution. This study conducts a comprehensive evaluation of two proposed transportation systems for Martian colonies: a ground-based magnetically levitated (maglev) train and a low-orbital spaceplane. Through simulation models, we assess the energy consumption, operational and construction costs, and environmental impacts of each system. Monte Carlo simulations further provide insights into the cost variability and financial risk associated with each option over a decade. Our findings reveal that while the spaceplane system offers lower average costs and reduced financial risk, the maglev train boasts greater scalability and potential for integration with Martian infrastructural development. The maglev system, despite its higher initial cost, emerges as a strategic asset for long-term colony expansion and sustainability, highlighting the need for balanced investment in transportation technologies that align with the goals of Martian colonization. Further extending our exploration, this study introduces advanced analysis of alternative transportation technologies, including hyperloop systems, drones, and rovers, incorporating dynamic environmental modeling of Mars and reinforcement learning for autonomous navigation. In an effort to enhance the realism and complexity of our navigation simulation of Mars, we introduce several significant improvements. These enhancements focus on the inclusion of dynamic atmospheric conditions, the simulation of terrain-specific obstacles such as craters and rocks, and the introduction of a swarm intelligence approach for navigating multiple drones simultaneously. This analysis serves as a foundational framework for future research and strategic planning in Martian transportation infrastructure.

show abstract

Anthroporobotocene: Non-human Players for Non-terrestrial Habitats

Burlando

2024

Springer Series in Design and Innovation

View full text Add to dashboard Cite

Martian Buildings: Design loading

Cited by 7 publications

References 51 publications

Martian buildings: structural forms using in-place sources

Martian buildings: structural forms using in-place sources

Analysis of Transportation Systems for Colonies on Mars

Anthroporobotocene: Non-human Players for Non-terrestrial Habitats

Contact Info

Product

Resources

About