Within the context of performance-based engineering, it is paramount that analysts and engineers are capable of identifying the instants at which different performance limit states (e.g. non-structural damage, structural damage, and collapse) are reached.
An EU source said: "We need a standard that reflects the state of art of the technology, that is as close as possible to what engineers are capable of doing, without going so high that a number of 60-tonne aircraft types would be put out of the market as that would be environmentally unhelpful, economically detrimental and also quite unfair, as lead-in times for aircraft take about 10 years".
The economic rebalancing Beijing is trying to engineer is capable by itself of achieving the country's energy-intensity and carbon-intensity reducing goals.
The Cuban economy is increasingly run by military engineers that are capable of running the day-to-day business activities, but do not have the vision to enact reforms or lead the country out of the economic mess of centralized state planning.
Engineered MSCs are capable of producing specific anticancer agents locally and constantly.
To effectively eliminate CD-immunoreactivity, plant, fungal, bacterial, animal or engineered peptidases are capable of degrading gluten proteins and peptides into harmless fragments.
Plant bioreactors can be engineered that are capable of producing Tn antigen-containing recombinant therapeutics.
Metal content analysis by ICP-AES indicates that the engineered mutants are capable of binding metal ions, in contrast with wild-type TbARG (Table 2).
These engineered nucleases are capable of introducing double-strand DNA breaks (DSBs) in nearly any gene in a wide range of cell types.
Unlike S. cerevisiae, of which only engineered strains are capable of limited pentose utilization [ 27], C. phytofermentans directly converts a wide array of fermentable components of biomass to ethanol, including cellulose, pectin, polygalacturonic acid, starch, xylan, arabinose, cellobiose, fructose, galactose, gentiobiose, glucose, lactose, maltose, mannose, ribose, and xylose [ 26].
Both genetically engineered and synthetic organisms are capable of reproducing, mutating, evolving, and spreading through the environment, which makes them riskier than hazardous chemicals.
