Transcriptomics: applications in epigenetic toxicology

Summary

Transcriptomics: applications in epigenetic toxicology is a book or chapter^[1].

Key Facts

• Transcriptomics: applications in epigenetic toxicology authored applications in epigenetic toxicology — author (P50): Pius Joseph^[2].
• Transcriptomics: applications in epigenetic toxicology's instance of is recorded as applications in epigenetic toxicology — instance of (P31): book or chapter^[3].
• Transcriptomics: applications in epigenetic toxicology's page is recorded as 445-458^[4].
• Transcriptomics: applications in epigenetic toxicology's DOI is recorded as 10.1002/9781118349045.CH23^[5].
• Transcriptomics: applications in epigenetic toxicology's part of is recorded as applications in epigenetic toxicology — part of (P361): Toxicology and epigenetics^[6].
• Transcriptomics: applications in epigenetic toxicology's language of work or name is recorded as applications in epigenetic toxicology — language of work or name (P407): English^[7].
• Transcriptomics: applications in epigenetic toxicology's publication date is recorded as +2012-08-08T00:00:00Z^[8].
• Transcriptomics: applications in epigenetic toxicology's sponsor is recorded as applications in epigenetic toxicology — sponsor (P859): NIOSH Health Effects Laboratory Division^[9].
• Transcriptomics: applications in epigenetic toxicology's main subject is recorded as applications in epigenetic toxicology — main subject (P921): construction^[10].
• Transcriptomics: applications in epigenetic toxicology's main subject is recorded as applications in epigenetic toxicology — main subject (P921): industrial manufacturing^[11].
• Transcriptomics: applications in epigenetic toxicology's main subject is recorded as applications in epigenetic toxicology — main subject (P921): gene^[12].
• Transcriptomics: applications in epigenetic toxicology's main subject is recorded as applications in epigenetic toxicology — main subject (P921): toxicology^[13].
• Transcriptomics: applications in epigenetic toxicology's main subject is recorded as applications in epigenetic toxicology — main subject (P921): environmental factor^[14].
• Transcriptomics: applications in epigenetic toxicology's main subject is recorded as applications in epigenetic toxicology — main subject (P921): deoxyribonucleic acid^[15].
• Transcriptomics: applications in epigenetic toxicology's main subject is recorded as applications in epigenetic toxicology — main subject (P921): recombinant DNA^[16].
• Transcriptomics: applications in epigenetic toxicology's main subject is recorded as applications in epigenetic toxicology — main subject (P921): ribonucleic acid^[17].
• Transcriptomics: applications in epigenetic toxicology's published in is recorded as applications in epigenetic toxicology — published in (P1433): Toxicology and epigenetics^[18].
• Transcriptomics: applications in epigenetic toxicology's title is recorded as Transcriptomics: applications in epigenetic toxicology^[19].
• Transcriptomics: applications in epigenetic toxicology's cites work is recorded as applications in epigenetic toxicology — cites work (P2860): Minimum information about a microarray experiment (MIAME)-toward standards for microarray data^[20].
• Transcriptomics: applications in epigenetic toxicology's cites work is recorded as applications in epigenetic toxicology — cites work (P2860): Blood gene expression signatures predict exposure levels.^[21].
• Transcriptomics: applications in epigenetic toxicology's cites work is recorded as applications in epigenetic toxicology — cites work (P2860): Single-Step Method of RNA Isolation by Acid Guanidinium Thiocyanate–Phenol–Chloroform Extraction^[22].
• Transcriptomics: applications in epigenetic toxicology's cites work is recorded as applications in epigenetic toxicology — cites work (P2860): Microarray analysis in rat liver slices correctly predicts in vivo hepatotoxicity^[23].
• Transcriptomics: applications in epigenetic toxicology's cites work is recorded as applications in epigenetic toxicology — cites work (P2860): A gene expression biomarker provides early prediction and mechanistic assessment of hepatic tumor induction by nongenotoxic chemicals^[24].
• Transcriptomics: applications in epigenetic toxicology's cites work is recorded as applications in epigenetic toxicology — cites work (P2860): Interlaboratory evaluation of genomic signatures for predicting carcinogenicity in the rat.^[25].
• Transcriptomics: applications in epigenetic toxicology's cites work is recorded as applications in epigenetic toxicology — cites work (P2860): Genes related to apoptosis predict necrosis of the liver as a phenotype observed in rats exposed to a compendium of hepatotoxicants^[26].

Body

Works and Contributions

Transcriptomics: applications in epigenetic toxicology authored applications in epigenetic toxicology — author (P50): Pius Joseph^[2].