Study on superconducting magnetic shield for the manned long termed space voyages

Zaman, Md. Abdullah Al; Maruf, H.M.A.R.; Islam, Md. Rafiqul; Panna, Neelufar

doi:10.1016/j.ejrs.2021.01.001

Cited by 7 publications

(1 citation statement)

References 15 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…In order to surround the spacecraft habitat module with such magnetic field, the coils should have large dimensions (several meters) and weight (tens of tons, depending on the design [49]), requiring an assembly procedure in space with potentially prohibitive costs. Several geometries have been proposed, with designs that meet the highest active shielding efficiency and the lower intensity of magnetic field inside the human space habitat, in order to preserve the health of the crew [50]. The effectiveness of this kind of shielding is related to the magnetic rigidity of particles, which expresses the resistance of a charged particle of a given momentum p to be deflected by a magnetic field:…”

Section: Active Shieldingmentioning

confidence: 99%

Foundations of radiological protection in space: the integrated multidisciplinary approach for next manned missions in deep space

Rizzo,

Borra,

Ciciani

et al. 2023

Eur. Phys. J. Plus

View full text Add to dashboard Cite

Future manned missions in deep space toward Moon and Mars represent one of the greatest challenges for radiological protection, which task is to mitigate risks for human life raised by the hostile space radiation environment. The prolonged exposure of astronauts to cosmic rays, mainly ion fields of galactic or solar origin, with a large dynamical behavior in time and space with a wide range of kinetic energies, may result in an unacceptable life risk for the next deep space manned missions. Indeed, these ions can deliver significant doses to astronauts by directly hitting human tissues as well as exposing them to secondary particles (neutron and high-LET nuclear fragments) produced by their interaction with space habitat materials. This radiation environment is very different from work environments on Earth, for example, in nuclear power plants or nuclear medicine departments, for which radioprotection was historically developed. Workers on Earth are mainly exposed to photons ($$\textrm{X}$$ X -rays and $$\gamma$$ γ -rays), to $$\alpha$$ α - and $$\beta$$ β -particles and neutrons, with lower energies than those in space. This difference marks a significant change in the methodological approach of the radioprotection in space compared to that on ground. The review presents the basic principles of radiation protection in space compared to that on ground and the strategies that must be implemented to mitigate risks in manned missions. In particular, the principles of the integrated multidisciplinary approach proposed by NASA and other space agencies for human space exploration are also discussed, with emphasis on the synergies among the various countermeasures proposed.

show abstract

Section: Active Shieldingmentioning

confidence: 99%