Impact of anodic bonding on transmission loss in 23GHz pressure transducers - LAAS - Laboratoire d'Analyse et d'Architecture des Systèmes Accéder directement au contenu
Article Dans Une Revue Microelectronics Reliability Année : 2019

Impact of anodic bonding on transmission loss in 23GHz pressure transducers

Résumé

This paper analyses the impact of anodic bonding technique on the transmission loss in 23GHz pressure transducers. The transducers consist of a thin high resistivity silicon membrane and a 23GHz planar resonator placed inside a cavity. Two types of transmission line are used here for designing the resonators: probe-fed coplanar lines and aperture-coupled microstrip ones. Transducers based on aperture-coupled microstrip resonators and manufactured from the anodic bonding process for assembling the silicon membrane to the glass substrate are the most promising low-loss solution. It is actually shown that, at the resonant frequency of the planar resonator, the measured transmission loss in a probe-fed coplanar transducer is about 4dB when using bonding with the photoresist as an intermediate layer, while it is only of 2.55dB when applying the anodic bonding assembling process. However, we report for the first time that very high and unexpected transmission loss (>30dB) occurs when using anodic bonding technique to manufacture the 23GHz aperture-coupled microstrip transducers.
Fichier principal
Vignette du fichier
Microelectronics_Reliability_2019_De Paolis-final-rev9_HAL_VERSION.pdf (1.26 Mo) Télécharger le fichier
Origine : Fichiers produits par l'(les) auteur(s)
Loading...

Dates et versions

hal-02301332 , version 1 (30-09-2019)

Identifiants

Citer

Maria Valeria de Paolis, Julien Philippe, Alexandre Rumeau, Anthony Coustou, Samuel Charlot, et al.. Impact of anodic bonding on transmission loss in 23GHz pressure transducers. Microelectronics Reliability, 2019, 100-101, pp.113352. ⟨10.1016/j.microrel.2019.06.044⟩. ⟨hal-02301332⟩
65 Consultations
7 Téléchargements

Altmetric

Partager

Gmail Facebook X LinkedIn More