Municipal water authorities in arid regions have recently proposed deploying quantum gravity sensors to map subterranean aquifer depletion. Critics contend that the high capital expense of quantum sensor hardware makes this initiative financially unviable compared to traditional satellite radar altimetry. However, traditional satellite altimetry only measures surface subsidence rather than subsurface volume changes, making satellite data insufficient for long-term water management. Because quantum gravity sensors provide direct, high-resolution measurements of subsurface mass density variations, their deployment will significantly increase the accuracy of aquifer capacity forecasts. Consequently, the long-term economic gains from optimized water allocation will far outweigh the initial capital outlay for the technology.
Which of the following best describes the structural role played in the argument by the claim that the deployment of quantum gravity sensors will significantly increase the accuracy of aquifer capacity forecasts?
- It is a subsidiary conclusion supported by evidence regarding sensor measurement capabilities, and it serves as intermediate support for the argument's final main conclusion concerning financial viability.Cevap
- BIt is the overall main conclusion of the argument, which the claim regarding long-term economic gains is intended to contextualize.
- CIt is an unmediated factual premise offered directly as empirical evidence to disprove the critics' objections regarding capital expense.
- DIt introduces a concession to the critics' stance by acknowledging the current technical constraints of satellite radar altimetry.
- EIt functions as an unstated assumption necessary to establish that satellite altimetry cannot detect subsurface volume changes.