The revised EEMCO guidance for the in vivo measurement of water in the skin

Comparison of the measuring efficacy of transepidermal water loss of a reasonably priced, portable closed-chamber system device H4500 with that of rather expensive, conventional devices such as Tewameter® and Vapometer®

(2017) K. Kikuchi et al.   SKIN RESEARCH AND TECHNOLOGY

Age-related changes in male forearm skin-to-fat tissue dielectric constant at 300 MHz

(2015) Harvey N. Mayrovitz et al.   CLINICAL PHYSIOLOGY AND FUNCTIONAL IMAGING

Young adult gender differences in forearm skin-to-fat tissue dielectric constant values measured at 300 MHz

(2015) H. N. Mayrovitz et al.   SKIN RESEARCH AND TECHNOLOGY

Comparative study of temporary effect on the water content at different depths of the skin by hot and cold moisturizing formulations

(2014) T. M. Cortázar et al.   SKIN RESEARCH AND TECHNOLOGY

Hair weathering and hair capacitance mapping: a pilot study

(2012) Claudine Piérard-Franchimont et al.   Journal of Cosmetic Dermatology

Side-by-side comparison of an open-chamber (TM 300) and a closed-chamber (Vapometer™) transepidermal water loss meter

(2011) Markus Steiner et al.   SKIN RESEARCH AND TECHNOLOGY

Measuring transepidermal water loss: a comparativein vivostudy of condenser-chamber, unventilated-chamber and open-chamber systems

(2009) Sara Farahmand et al.   SKIN RESEARCH AND TECHNOLOGY

Suitability of single tissue dielectric constant measurements to assess local tissue water in normal and lymphedematous skin

(2008) Harvey N. Mayrovitz et al.   CLINICAL PHYSIOLOGY AND FUNCTIONAL IMAGING