In 1895, Harvard University’s new Fogg Art Museum opened to the public, but its lecture hall was immediately deemed an acoustic failure. The room’s curved walls and high plaster ceiling created an echo so persistent that speakers’ words remained suspended in the air, overlapping into an unintelligible din. Desperate for a solution, the university president turned to a young physics professor, Wallace Sabine. Sabine spent years conducting painstaking experiments, using organ pipes and cushions borrowed from nearby theaters to measure sound decay. His work culminated in the first mathematical relationship governing reverberation time, effectively establishing the field of architectural acoustics.
Sabine’s new scientific principles were put to the test when he was hired to design Boston’s Symphony Hall. Rather than copying the circular shapes that had ruined the Fogg museum’s hall, Sabine chose a rectangular, "shoebox" layout with deep balconies, high ceilings, and walls coffered with niches and statues. These features dispersed the sound waves evenly throughout the auditorium, preventing focused echoes. Even today, the venue remains a popular destination for tourists visiting the historic city of Boston.
Which choice most effectively concludes the paragraph by highlighting the successful application of Sabine’s new scientific field and its lasting impact?
- ANO CHANGE
- This triumph proved that exceptional acoustics could be scientifically engineered, cementing Sabine’s principles as the foundation of modern concert hall design.Cevap
- CUltimately, Sabine's calculations proved successful, the hall’s acoustics are still celebrated by musicians and audiences worldwide.
- DConversely, Sabine’s formulas became the industry standard, and modern architects still build concert halls that relied on these principles.