This Letter presents the R-package implementation of the recently introduced polynomial method for calculating the aggregated isotopic distribution called BRAIN (Baffling Recursive Algorithm for Isotopic distributioN calculations). The algorithm is simple, easy to understand, highly accurate, fast, and memory-efficient. The method is based on the application of the Newton-Girard theorem and Viète’s formulae to the polynomial coding of different aggregated isotopic variants. As a result, an elegant recursive equation is obtained for computing the occurrence probabilities of consecutive aggregated isotopic peaks. Additionally, the algorithm also allows calculating the center-masses of the aggregated isotopic variants. We propose an implement...
Studying the flow of chemical moieties through the complex set of metabolic reactions that happen in...
Top-down proteomics approaches are becoming ever more popular, due to the advantages offered by know...
Motivation: High-accuracy mass spectrometry is a popular technology for high-throughput measurements...
Description Package for calculating aggregated isotopic distribution and exact center-masses for che...
Motivation: Labelling experiments in biology usually make use of isotopically-enriched substrates, w...
This paper presents a new method for efficiently calculating the exact masses in an isotopic distrib...
The composition of stable-isotope labelled isotopologues/isotopomers in metabolic products can be me...
This article presents a memory efficient algorithm for accurately calculating the isotopic fine stru...
New metabolomics applications of ultra-high resolution and accuracy mass spectrometry can provide th...
Mass spectrometry is a technique to determine the molecular content of samples derived from human, a...
International audienceStable-isotope labeling experiments are widely used to investigate the topolog...
We introduce a simplified computational algorithm for computing isotope distributions (relative abun...
This paper presents a new method for calculating accurate masses of isotopic peaks. It is based on b...
Abstract Motivation Labelling experiments in bio...
Background The knowledge of metabolic pathways and fluxes is important to understand the adaptati...
Studying the flow of chemical moieties through the complex set of metabolic reactions that happen in...
Top-down proteomics approaches are becoming ever more popular, due to the advantages offered by know...
Motivation: High-accuracy mass spectrometry is a popular technology for high-throughput measurements...
Description Package for calculating aggregated isotopic distribution and exact center-masses for che...
Motivation: Labelling experiments in biology usually make use of isotopically-enriched substrates, w...
This paper presents a new method for efficiently calculating the exact masses in an isotopic distrib...
The composition of stable-isotope labelled isotopologues/isotopomers in metabolic products can be me...
This article presents a memory efficient algorithm for accurately calculating the isotopic fine stru...
New metabolomics applications of ultra-high resolution and accuracy mass spectrometry can provide th...
Mass spectrometry is a technique to determine the molecular content of samples derived from human, a...
International audienceStable-isotope labeling experiments are widely used to investigate the topolog...
We introduce a simplified computational algorithm for computing isotope distributions (relative abun...
This paper presents a new method for calculating accurate masses of isotopic peaks. It is based on b...
Abstract Motivation Labelling experiments in bio...
Background The knowledge of metabolic pathways and fluxes is important to understand the adaptati...
Studying the flow of chemical moieties through the complex set of metabolic reactions that happen in...
Top-down proteomics approaches are becoming ever more popular, due to the advantages offered by know...
Motivation: High-accuracy mass spectrometry is a popular technology for high-throughput measurements...