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Item does not contain fulltext, Aggregated forms of the amyloid-beta peptide are hypothesized to act as the prime toxic agents in Alzheimer disease (AD). The in vivo amyloid-beta peptide pool consists of both C- and N-terminally truncated or mutated peptides, and the composition thereof significantly determines AD risk. Other variations, such as biotinylation, are introduced as molecular tools to aid the understanding of disease mechanisms. Since these modifications have the potential to alter key aggregation properties of the amyloid-beta peptide, we present a comparative study of the aggregation of a substantial set of the most common in vivo identified and in vitro produced amyloid-beta peptides. STRUCTURED SUMMARY OF PROTEIN INTERACTIONS: Amyloid beta and Amyloid betabind by fluorescence technology (View Interaction: 1, 2, 3, 4, 5) Amyloid beta and Amyloid betabind by transmission electron microscopy (View Interaction: 1, 2) Amyloid beta and Amyloid betabind by filter binding (View Interaction: 1, 2, 3).

Item does not contain fulltext, Aggregated forms of the amyloid-beta peptide are hypothesized to act as the prime toxic agents in Alzheimer disease (AD). The in vivo amyloid-beta peptide pool consists of both C- and N-terminally truncated or mutated peptides, and the composition thereof significantly determines AD risk. Other variations, such as biotinylation, are introduced as molecular tools to aid the understanding of disease mechanisms. Since these modifications have the potential to alter key aggregation properties of the amyloid-beta peptide, we present a comparative study of the aggregation of a substantial set of the most common in vivo identified and in vitro produced amyloid-beta peptides. STRUCTURED SUMMARY OF PROTEIN INTERACTIONS: Amyloid beta and Amyloid betabind by fluorescence technology (View Interaction: 1, 2, 3, 4, 5) Amyloid beta and Amyloid betabind by transmission electron microscopy (View Interaction: 1, 2) Amyloid beta and Amyloid betabind by filter binding (View Interaction: 1, 2, 3).

Item does not contain fulltext, Aggregated forms of the amyloid-beta peptide are hypothesized to act as the prime toxic agents in Alzheimer disease (AD). The in vivo amyloid-beta peptide pool consists of both C- and N-terminally truncated or mutated peptides, and the composition thereof significantly determines AD risk. Other variations, such as biotinylation, are introduced as molecular tools to aid the understanding of disease mechanisms. Since these modifications have the potential to alter key aggregation properties of the amyloid-beta peptide, we present a comparative study of the aggregation of a substantial set of the most common in vivo identified and in vitro produced amyloid-beta peptides. STRUCTURED SUMMARY OF PROTEIN INTERACTIONS: Amyloid beta and Amyloid betabind by fluorescence technology (View Interaction: 1, 2, 3, 4, 5) Amyloid beta and Amyloid betabind by transmission electron microscopy (View Interaction: 1, 2) Amyloid beta and Amyloid betabind by filter binding (View Interaction: 1, 2, 3).

Item does not contain fulltext, Aggregated forms of the amyloid-beta peptide are hypothesized to act as the prime toxic agents in Alzheimer disease (AD). The in vivo amyloid-beta peptide pool consists of both C- and N-terminally truncated or mutated peptides, and the composition thereof significantly determines AD risk. Other variations, such as biotinylation, are introduced as molecular tools to aid the understanding of disease mechanisms. Since these modifications have the potential to alter key aggregation properties of the amyloid-beta peptide, we present a comparative study of the aggregation of a substantial set of the most common in vivo identified and in vitro produced amyloid-beta peptides. STRUCTURED SUMMARY OF PROTEIN INTERACTIONS: Amyloid beta and Amyloid betabind by fluorescence technology (View Interaction: 1, 2, 3, 4, 5) Amyloid beta and Amyloid betabind by transmission electron microscopy (View Interaction: 1, 2) Amyloid beta and Amyloid betabind by filter binding (View Interaction: 1, 2, 3).

Selected reaction monitoring (SRM) uses sensitive and specific mass spectrometric assays to measure target analytes across multiple samples, but it has not been broadly applied in proteomics owing to the tedious assay development process for each protein. We describe a method based on crude synthetic peptide libraries for the high-throughput development of SRM assays. We illustrate the power of the approach by generating and applying validated SRM assays for all Saccharomyces cerevisiae kinases and phosphatases.