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Thomas M. Badger

Researcher at University of Arkansas for Medical Sciences

Publications -  305
Citations -  13313

Thomas M. Badger is an academic researcher from University of Arkansas for Medical Sciences. The author has contributed to research in topics: Soy protein & Offspring. The author has an hindex of 63, co-authored 299 publications receiving 12304 citations. Previous affiliations of Thomas M. Badger include University of Arkansas & United States Department of Agriculture.

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Inducibility of Hepatic CYP1A Enzymes by 3-Methylcholanthrene and Isosafrole Differs in Male Rats Fed Diets Containing Casein, Soy Protein Isolate or Whey from Conception to Adulthood

TL;DR: Potential effects of dietary protein source on metabolism of a wide variety of CYP1A substrates, including environmental and dietary carcinogens, many of which induce their own metabolism are suggested.
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Cyclic expression of class I alcohol dehydrogenase in male rats treated with ethanol.

TL;DR: An ethanol-dependent regulation of rat hepatic class I ADH is demonstrated for the first time and implies adaptability of the ethanol eliminating system to high concentrations of alcohol.
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Diet‐Derived Phenolic Acids Regulate Osteoblast and Adipocyte Lineage Commitment and Differentiation in Young Mice

TL;DR: Hippuric acid was able to stimulate bone‐forming gene expression but suppress PPARγ expression, leading to increased bone mass dose‐dependently, and PAs are capable of altering the mesenchymal stem cell differentiation program.
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Pulsatile blood alcohol and CYP2E1 induction during chronic alcohol infusions in rats

TL;DR: It is proposed that the pulsatile BACs are caused by an ethanol concentration-dependent regulation of an ethanol metabolizing system, perhaps CYP2E1, and found to be pulsatile during continuous alcohol infusion.
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Soy protein isolates prevent loss of bone quantity associated with obesity in rats through regulation of insulin signaling in osteoblasts

TL;DR: The results suggest that high‐fat feeding may disrupt bone development and modeling; high concentrations of NEFAs and insulin resistance occurring with high fat intake are mediators of reduced osteoblast activity and differentiation; diets high in soy protein may help prevent high dietary fat‐induced bone impairments; and the molecular mechanisms underlying the SPI‐protective effects involve isoflavone‐induced normalization of insulin signaling in bone.