Lisa Ann Mullins
Procter & Gamble
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Publication
Featured researches published by Lisa Ann Mullins.
Journal of The American Academy of Dermatology | 2018
Alexa B. Kimball; Maria B. Alora-Palli; Makio Tamura; Lisa Ann Mullins; Chieko Soh; Robert Lloyd Binder; Neil Houston; Emily D. Conley; Joyce Y. Tung; Nikki Elizabeth Annunziata; Charles Carson Bascom; Robert J. Isfort; Bradley Jarrold; Raghu Kainkaryam; Heather Rocchetta; Dionne D. Swift; Jay P. Tiesman; Kazumi Toyama; Jun Xu; Xianghong Yan; Rosemarie Osborne
Background: Intrinsic and extrinsic factors, including ultraviolet irradiation, lead to visible signs of skin aging. Objective: We evaluated molecular changes occurring in photoexposed and photoprotected skin of white women 20 to 74 years of age, some of whom appeared substantially younger than their chronologic age. Methods: Histologic and transcriptomics profiling were conducted on skin biopsy samples of photoexposed (face and dorsal forearm) or photoprotected (buttocks) body sites from 158 women. 23andMe genotyping determined genetic ancestry. Results: Gene expression and ontologic analysis revealed progressive changes from the 20s to the 70s in pathways related to oxidative stress, energy metabolism, senescence, and epidermal barrier; these changes were accelerated in the 60s and 70s. The gene expression patterns from the subset of women who were younger‐appearing were similar to those in women who were actually younger. Limitations: Broader application of these findings (eg, across races and Fitzpatrick skin types) will require further studies. Conclusions: This study demonstrates a wide range of molecular processes in skin affected by aging, providing relevant targets for improving the condition of aging skin at different life stages and defining a molecular pattern of epidermal gene expression in women who appear younger than their chronologic age.
Archive | 2009
Cristopher R. McLaughlin; Rosemarie Osborne; A. Hyatt; Mitchell A. Watsky; Emma V. Dare; Bradley Jarrold; Lisa Ann Mullins; May Griffith
The field of tissue engineering is multidisciplinary, seeking to fabricate artificial organs or substitutes in order to replace failing or damaged organs. These engineered tissues and organs are mostly targeted as substitutes for human donor tissues and as such are developed to avoid the complications associated with donor matching and immune rejection [1]. Examples include substitutes of organs including liver, heart, kidney, skin, teeth, and cornea [2].
Archive | 2007
Rosemarie Osborne; Lisa Ann Mullins; Sara Johnson Mcphall
Archive | 2011
Deborah Ruth Finlay; Robert Lloyd Binder; Michael K. Robinson; Rosemarie Osborne; Lisa Ann Mullins
Archive | 2007
Rosemarie Osborne; Lisa Ann Mullins; David Joseph Eickhoff; Larry Richard Robinson; Deborah Ruth Finlay
Archive | 2013
Rosemarie Osborne; Lisa Ann Mullins; Deborah Ruth Finlay
British Journal of Dermatology | 2013
Rosemarie Osborne; R.S. Carver; Lisa Ann Mullins; Deborah Ruth Finlay
Archive | 2013
Rosemarie Osborne; Lisa Ann Mullins; Gregory Joseph Kramer
Archive | 2017
Rosemarie Osborne; Lisa Ann Mullins; Deborah Ruth Finlay
Archive | 2017
Rosemarie Osborne; Lisa Ann Mullins; Michael Koganov