Dielectric-Backed Aperture Resonators for X-Band in vivo EPR Nail Dosimetry.A new resonator for X-band in vivo EPR nail dosimetry, the dielectric-backed aperture resonator (DAR), is developed based on rectangular TE102 geometry.  This work also introduces a DAR semi-spherical (SS)-TE011 geometry.  It has been shown that DAR provides sufficient sensitivity to make biologically relevant measurements both in vitro and in vivo Although in vivo tests have shown some effects of physiological motions that suggest the necessity of a more robust finger holder, equivalent dosimetry sensitivity of approximately 1.4 Gy has been demonstrated.
DAR
Dielectric-Backed Aperture Resonators for X-Band in vivo EPR Nail Dosimetry.A new resonator for X-band in vivo EPR nail dosimetry, the dielectric-backed aperture resonator (DAR), is developed based on rectangular TE102 geometry.  This work also introduces a DAR semi-spherical (SS)-TE011 geometry.  It has been shown that DAR provides sufficient sensitivity to make biologically relevant measurements both in vitro and in vivo Although in vivo tests have shown some effects of physiological motions that suggest the necessity of a more robust finger holder, equivalent dosimetry sensitivity of approximately 1.4 Gy has been demonstrated.
DAR
Dielectric-Backed Aperture Resonators for X-Band in vivo EPR Nail Dosimetry.A new resonator for X-band in vivo EPR nail dosimetry, the dielectric-backed aperture resonator (DAR), is developed based on rectangular TE102 geometry. 
TE102 geometry
Dielectric-Backed Aperture Resonators for X-Band in vivo EPR Nail Dosimetry.A new resonator for X-band in vivo EPR nail dosimetry, the dielectric-backed aperture resonator (DAR), is developed based on rectangular TE102 geometry.  This work also introduces a DAR semi-spherical (SS)-TE011 geometry.  It has been shown that DAR provides sufficient sensitivity to make biologically relevant measurements both in vitro and in vivo Although in vivo tests have shown some effects of physiological motions that suggest the necessity of a more robust finger holder, equivalent dosimetry sensitivity of approximately 1.4 Gy has been demonstrated.
DAR
This work also introduces a DAR semi-spherical (SS)-TE011 geometry. 
DAR semi-spherical (SS)-TE011 geometry