Publications by authors named "Madeline E West"

Article Synopsis
  • - Pediatric high-grade gliomas often have gene fusions with receptor tyrosine kinase genes, such as NTRK, leading to high initial responses to treatment but eventual recurrence due to new mutations.
  • - Researchers created mouse models of gliomas driven by NTRK fusions to study how different genetic variations influence tumor characteristics and aggressiveness.
  • - While TRK kinase inhibitors improve survival rates in these mice, they do not eliminate the tumors, with recurrence likely due to ERK activation; combining these inhibitors with MEK inhibitors might enhance treatment effectiveness.
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Pediatric-type high-grade gliomas frequently harbor gene fusions involving receptor tyrosine kinase genes, including neurotrophic tyrosine kinase receptor (NTRK) fusions. Clinically, these tumors show high initial response rates to tyrosine kinase inhibition but ultimately recur due to the accumulation of additional resistance-conferring mutations. Here, we developed a series of genetically engineered mouse models of treatment-naïve and -experienced NTRK1/2/3 fusion-driven gliomas.

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Aggregation of antibody light chain proteins is associated with the progressive disease light chain amyloidosis. Patient-derived amyloid fibrils are formed from light chain variable domain residues in non-native conformations, highlighting a requirement that light chains unfold from their native structures in order to aggregate. However, mechanistic studies of amyloid formation have primarily focused on the self-assembly of natively unstructured peptides, and the role of native state unfolding is less well understood.

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Aggregation of antibody light chain proteins is associated with the progressive disease light chain amyloidosis. Patient-derived amyloid fibrils are formed from light chain variable domain residues in non-native conformations, highlighting a requirement that light chains unfold from their native structures in order to aggregate. However, mechanistic studies of amyloid formation have primarily focused on the self-assembly of natively unstructured peptides, and the role of native state unfolding is less well understood.

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