Analogues have been developed and characterised for both interplanetary dust and meteoric smoke particles. These include amorphous materials with elemental compositions similar to the olivine mineral solid solution series, a variety of iron oxides, undifferentiated meteorites (chondrites) and minerals which can be considered good terrestrial proxies to some phases present in meteorites. The products have been subjected to a suite of analytical techniques to demonstrate their suitability as analogues for the target materials
The CoPhyLab (Cometary Physics Laboratory) project is designed to study the physics of comets throug...
We describe the capabilities, radiometric stability, and calibration of a custom vacuum environment ...
Cometary dust is an unequilibrated, heterogeneous mixture of crystalline and glassy silicate mineral...
Analogues have been developed and characterised for both interplanetary dust and meteoric smoke part...
The laboratory analyses of cosmic dust analogues--that in the context of this paper include interste...
Meteoric smoke forms in the mesosphere from the recondensation of the metallic species and silica pr...
Analogues were developed for Interplanetary Dust Particles (IDPs) and Meteoric Smoke Particles (MSPs...
International audiencePolarimetric observations of cometary comae may be used to infer dust particle...
Our insight into the structural properties of cosmic dust has been improved by observations at highe...
In this chapter, the main techniques for producing and characterizing cosmic dust analogues in...
International audienceAmorphous, astrophysically relevant silicates were prepared by laser ablation ...
International audienceA set of high-fidelity simulated asteroid materials, or simulants, was develop...
Accurate determination of the optical properties of analogues for meteoric smoke particles (MSPs), w...
A large number of solid dust components have been identified through analysis of stardust recovered ...
The mass absorption coefficients of some glassy and crystalline silicates of astrophysical relevance...
The CoPhyLab (Cometary Physics Laboratory) project is designed to study the physics of comets throug...
We describe the capabilities, radiometric stability, and calibration of a custom vacuum environment ...
Cometary dust is an unequilibrated, heterogeneous mixture of crystalline and glassy silicate mineral...
Analogues have been developed and characterised for both interplanetary dust and meteoric smoke part...
The laboratory analyses of cosmic dust analogues--that in the context of this paper include interste...
Meteoric smoke forms in the mesosphere from the recondensation of the metallic species and silica pr...
Analogues were developed for Interplanetary Dust Particles (IDPs) and Meteoric Smoke Particles (MSPs...
International audiencePolarimetric observations of cometary comae may be used to infer dust particle...
Our insight into the structural properties of cosmic dust has been improved by observations at highe...
In this chapter, the main techniques for producing and characterizing cosmic dust analogues in...
International audienceAmorphous, astrophysically relevant silicates were prepared by laser ablation ...
International audienceA set of high-fidelity simulated asteroid materials, or simulants, was develop...
Accurate determination of the optical properties of analogues for meteoric smoke particles (MSPs), w...
A large number of solid dust components have been identified through analysis of stardust recovered ...
The mass absorption coefficients of some glassy and crystalline silicates of astrophysical relevance...
The CoPhyLab (Cometary Physics Laboratory) project is designed to study the physics of comets throug...
We describe the capabilities, radiometric stability, and calibration of a custom vacuum environment ...
Cometary dust is an unequilibrated, heterogeneous mixture of crystalline and glassy silicate mineral...