A water utility company in a drought-prone city plans to install automated pressure-regulating valves across its subterranean pipe network. The utility argues that by dynamically reducing water pressure during low-usage overnight hours, it will significantly decrease the total volume of water lost through minor background pipe leaks across the city.
Which of the following, if true, provides the strongest support for the water utility company's argument?
- In unmanaged pipe networks, water pressure naturally reaches its daily peak during overnight hours, when low residential demand causes a surge in baseline pressure.Cevap
- BAutomated pressure-regulating valves require higher daytime operating pressure to maintain baseline flow, which slightly increases leakage during peak morning hours.
- CInstalling similar automated valves in neighboring agricultural irrigation districts reduced total seasonal water consumption by twelve percent.
- DThe city's primary water treatment facility recently upgraded its filtration infrastructure to process higher daily volumetric throughput.
- EMinor background pipe leaks account for a smaller overall percentage of total lost water than catastrophic main ruptures.
Cevap
The argument is most strongly supported by the fact that in unmanaged pipe networks, water pressure naturally reaches its daily peak during overnight hours when residential demand is low.
The argument concludes that reducing water pressure during low-usage overnight hours will significantly decrease total water loss from background pipe leaks. The option explaining that water pressure naturally reaches its daily peak during overnight hours due to low residential demand directly supports this claim. It demonstrates that overnight hours are precisely when unmanaged pipes experience the highest stress and leakage rates, meaning targeted overnight pressure reduction will prevent a substantial volume of lost water.
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Strengthening Arguments by Confirming Key Operational Assumptions
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