Elemental balances from bench scale experiments using the best OTM in the absence of the CO2 sorbent allow identifying the sequence of the chemical reaction mechanism.
Identifying the sequence of the 3 billion chemical units of DNA that make up the human genome has been a 10-year project of a public consortium of university centers, financed largely by the National Institutes of Health and the Wellcome Trust of London.
In principle, sequence-defined synthetic polymers based on nonbiological monomers and backbones might overcome these constraints; however, identifying the sequence of a synthetic polymer that possesses a specific desired functional property remains a major challenge.
This would require performing automatic transcription, i.e., identifying the sequence of notes and their characteristics such as the dynamics, rhythms, pitches, etc.
The business of quickly identifying the sequence of DNA has become super-charged in the last five years because chemists and biologists have joined forces with computer scientists.
The most fundamental breakthrough since 1998 has been identifying the sequence of the 3 billion nucleotide base pairs across the 23 pairs of chromosomes in the human genome.
The SAMDI method, in combination with isotopically labeled residues, provides a straightforward method for identifying the sequence of modifications that underlie histone modification.
Adamyan and He (2002) presented a methodology to identify the sequences of failures and probability of their occurrence in an automated manufacturing system.
