Magnetic Field Sensing via Acoustic Sensing Fiber with Metglas® 2605SC Cladding Wires

Author:

Dejneka Zach1ORCID,Homa Daniel12ORCID,Buontempo Joshua1ORCID,Crawford Gideon13,Martin Eileen3ORCID,Theis Logan2,Wang Anbo2,Pickrell Gary12

Affiliation:

1. Department of Materials Science and Engineering, Virginia Tech, Blacksburg, VA 24061, USA

2. Center for Photonics Technology, Bradley Department of Electrical and Computer Engineering, Virginia Tech, Blacksburg, VA 24061, USA

3. Colorado School of Mines, Golden, CO 8040, USA

Abstract

Magnetic field sensing has the potential to become necessary as a critical tool for long-term subsurface geophysical monitoring. The success of distributed fiber optic sensing for geophysical characterization provides a template for the development of next generation downhole magnetic sensors. In this study, Sentek Instrument’s picoDAS is coupled with a multi-material single mode optical fiber with Metglas® 2605SC cladding wire inclusions for magnetic field detection. The response of acoustic sensing fibers with one and two Metglas® 2605SC cladding wires was evaluated upon exposure to lateral AC magnetic fields. An improved response was demonstrated for a sensing fiber with in-cladding wire following thermal magnetic annealing (~400 °C) under a constant static transverse magnetic field (~200 μT). A minimal detectable magnetic field of ~500 nT was confirmed for a sensing fiber with two 10 μm cladding wires. The successful demonstration of a magnetic field sensing fiber with Metglas® cladding wires fabricated via traditional draw processes sets the stage for distributed measurements and joint inversion as a compliment to distributed fiber optic acoustic sensors.

Funder

Department of Energy

Publisher

MDPI AG

Reference21 articles.

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