Transcriptional differentiation of Trypanosoma brucei during in vitro acquisition of resistance to acoziborole
Source: NCBI BioProject (ID PRJNA707209)

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Project name: Transcriptional differentiation of Trypanosoma brucei during in vitro acquisition of resistance to acoziborole
Description: Purpose: Acoziborole is a recently developed benzoxaborole class compound, currently in clinical trials, for stage 1 and stage 2 treatment of Human African Trypanosomiasis. Recent studies have made significant progress in determining the molecular mode of action of acoziborole. However, less is known about the potential mechanisms leading to acoziborole resistance in trypanosomes. By characterising in vitro drug-resistance, this study aimed to gain a better understanding of the mechanisms involved in acoziborole resistance in the clinicaly relevant Trypanosoma bruceiMethods: Drug resistance was generated in vitro through incremental dosage of acoziborole. RNA was isolated from axenic cultures of drug-resistant and parental drug sensitive cells and submitted for RNA-seqResults: Transcriptomics analysis revealed widepread downregulation of transcripts associated with mammalian-infective bloodstream-form parasites. Conversely, transcripts associated with insect-stage procyclic form parasites were increased, indicating that the resistant cells had undergone an unspecified "differentiation event", albeit on a transcriptomic levelConclusions: Trypanosoma brucei resistance to acoziborole can be generated under in vitro axenic conditions, and "transcriptional differentiation" is a mechanism of resistance. However, it is unknown whether this phenomenon is relevant to an in vivo settingOverall design: Acoziborole resistance generated in vitro by supplementation of incremental drug dosage. Comparison to wild-type parental control and wild-type control passaged in the absence of drug to account for long tem in vitro medium adaptation
Data type: Transcriptome or Gene expression
Sample scope: Multiisolate
Relevance: Medical
Organization: Liam Morrison, Division of Infection and Immunity, Roslin Institute, University of Edinburgh
Literatures
  1. PMID: 34752454
Last updated: 2021-03-06
Statistics: 6 samples; 6 experiments; 6 runs