The Microwave Thermal Emission from the Zodiacal Dust Cloud Predicted with Contemporary Meteoroid Models
arXiv:1501.04780 · doi:10.1051/0004-6361/201525690
Abstract
Predictions of the microwave thermal emission from the interplanetary dust cloud are made using several contemporary meteoroid models to construct the distributions of cross-section area of dust in space, and applying the Mie light-scattering theory to estimate the temperatures and emissivities of dust particles in broad size and heliocentric distance ranges. In particular, the model of the interplanetary dust cloud by Kelsall et al. (1998, ApJ 508: 44-73), the five populations of interplanetary meteoroids of Divine (1993, JGR 98(E9): 17,029-17,048) and the Interplanetary Meteoroid Engineering Model (IMEM) by Dikarev et al. (2004, EMP 95: 109-122) are used in combination with the optical properties of olivine, carbonaceous and iron spherical particles. The Kelsall model has been widely accepted by the Cosmic Microwave Background (CMB) community. We show, however, that it predicts the microwave emission from interplanetary dust remarkably different from the results of application of the meteoroid engineering models. We make maps and spectra of the microwave emission predicted by the three models assuming variant composition of dust particles. Predictions can be used to look for the emission from interplanetary dust in CMB experiments as well as to plan new observations.
Submitted to A&A
References in corpus (6)
- Lack of large-angle TT correlations persists in WMAP and Planck
- Large-scale alignments from WMAP and Planck
- On the proper kinetic quadrupole CMB removal and the quadrupole anomalies
- Can residuals of the Solar system foreground explain low multipole anomalies of the CMB ?
- What Can the Cosmic Microwave Background Tell Us About the Outer Solar System?
- Zodiacal Light Emission in the PLANCK mission