100 Examples of sentences containing the common noun "tpi turbine-performance-index"

Definition

Tpi (Turbine Performance Index) refers to a metric used to evaluate the performance of turbines, particularly in power generation and aerodynamics. It quantifies the efficiency and effectiveness of a turbine in converting energy from a fluid (like air or water) into mechanical energy. The Tpi is a crucial parameter for engineers and scientists in optimizing turbine designs and improving energy output.

Synonyms

• Turbine Efficiency Index
• Turbine Performance Ratio
• Energy Conversion Index

Antonyms

• Turbine Inefficiency Index
• Performance Degradation Index
• Energy Loss Ratio

Examples

1. The engineers calculated the Tpi to assess the turbine's efficiency in the new design.
2. Higher Tpi values often indicate better performance under varying operational conditions.
3. It is crucial for engineers to monitor the Tpi regularly to ensure optimal turbine functionality.
4. The research team published findings that showed a correlation between Tpi and energy output.
5. To improve the Tpi, the design team implemented aerodynamic enhancements.
6. The Tpi reflects the turbine's ability to operate efficiently in different environments.
7. Engineers analyzed the Tpi data to identify potential improvements.
8. A decrease in Tpi suggests a need for maintenance or design reevaluation.
9. The Tpi serves as a benchmark for comparing different turbine models.
10. It is essential to understand how Tpi affects overall system performance.
11. The company prioritized projects that would enhance the Tpi of their turbines.
12. The Tpi can vary significantly depending on the turbine's operational parameters.
13. Researchers discovered a new method to improve the Tpi through advanced materials.
14. The Tpi is influenced by factors such as blade design and fluid dynamics.
15. Engineers debated the merits of different designs based on Tpi measurements.
16. The latest turbine model achieved a record Tpi, outperforming its predecessors.
17. To optimize the Tpi, the team conducted extensive field tests.
18. The Tpi provides valuable insight into the turbine's performance capabilities.
19. A high Tpi indicates effective energy conversion and minimal losses.
20. The project aimed to enhance the Tpi by reducing drag on the turbine blades.
21. The Tpi is calculated using a standard formula involving flow rates and power output.
22. Engineers utilized simulation tools to predict Tpi under various scenarios.
23. The industry standardized Tpi as a key performance metric for turbines.
24. The turbine's Tpi declined after years of operation without maintenance.
25. The team analyzed historical Tpi data to forecast future performance trends.
26. A thorough understanding of Tpi enables engineers to make informed design decisions.
27. The Tpi was highlighted in the annual performance report for the power plant.
28. The new technology promised to significantly enhance the Tpi of offshore turbines.
29. To achieve a higher Tpi, the engineers adjusted the pitch of the blades.
30. The Tpi was verified through multiple testing phases.
31. A consistent Tpi can lead to improved energy efficiency and reduced operational costs.
32. The research focused on factors affecting the Tpi of wind turbines.
33. The Tpi helps determine the economic viability of turbine installations.
34. Engineers strived to maintain an optimal Tpi throughout the turbine's lifecycle.
35. The Tpi was presented at the international conference on renewable energy.
36. The project succeeded in increasing the Tpi by implementing innovative designs.
37. A drop in Tpi might necessitate a review of the turbine's operational history.
38. The team conducted experiments to assess the relationship between Tpi and blade shape.
39. The Tpi is a crucial factor in the overall assessment of turbine performance.
40. They noted a significant improvement in Tpi after upgrading the control systems.
41. The Tpi revealed the turbine's performance under real-world conditions.
42. Engineers compared the Tpi of their turbine with industry benchmarks.
43. The report included a comprehensive analysis of the Tpi trends over the last decade.
44. They sought to understand how environmental factors affect Tpi.
45. The Tpi has become a key performance indicator for turbine manufacturers.
46. Engineers documented Tpi measurements to ensure compliance with regulations.
47. The Tpi was evaluated during the testing phase of the project.
48. The research aimed to establish a new baseline for Tpi in high-efficiency turbines.
49. A well-designed turbine typically achieves a high Tpi.
50. The Tpi indicated that the turbine was operating below optimal levels.
51. The team collaborated with experts to improve the Tpi measurement techniques.
52. Maintaining a high Tpi requires regular inspections and maintenance.
53. The Tpi is often used to justify investment in turbine technology advancements.
54. The findings showed that Tpi can be optimized with minor adjustments.
55. The turbine's performance was gauged using Tpi as a reference point.
56. Engineers recommended changes to enhance the Tpi for future projects.
57. The Tpi is an integral part of the turbine's performance evaluation.
58. They discussed the implications of Tpi on energy production forecasts.
59. The Tpi is essential for understanding the turbine's operational efficiency.
60. The study identified key variables that impact the Tpi.
61. A higher Tpi is often linked to technological advancements in turbine design.
62. The team developed strategies to maintain a consistent Tpi throughout operations.
63. The Tpi was a focal point in their annual performance review.
64. Engineers strived to achieve an optimal Tpi through innovative research.
65. The Tpi was analyzed in relation to environmental impacts on turbine performance.
66. The project aimed to explore the limits of Tpi enhancement techniques.
67. The Tpi is critical for assessing turbine viability in competitive markets.
68. The team employed sophisticated modeling techniques to predict Tpi outcomes.
69. The Tpi can fluctuate based on changes in operational conditions.
70. Engineers focused on maximizing Tpi to increase overall plant efficiency.
71. The Tpi is a valuable metric for turbine performance assessment.
72. They examined Tpi trends to forecast future energy production capabilities.
73. The turbine design was modified to improve its Tpi.
74. The Tpi yielded insights into the turbine's mechanical limitations.
75. Understanding Tpi is essential for optimizing energy conversion processes.
76. The Tpi was measured during the turbine's commissioning phase.
77. Engineers developed a new protocol for Tpi evaluation.
78. The Tpi remains a topic of interest in turbine performance research.
79. The team highlighted the importance of Tpi in their presentation.
80. The Tpi indicated that a redesign was necessary for better efficiency.
81. The analysis demonstrated a direct link between Tpi and operational costs.
82. The Tpi was used to benchmark performance against industry standards.
83. They assessed the impact of various factors on the Tpi.
84. The Tpi is crucial for understanding turbine behavior under different loads.
85. The research focused on enhancing the Tpi through innovative blade designs.
86. Engineers investigated the role of Tpi in turbine longevity.
87. The Tpi has implications for energy policy and renewable energy strategies.
88. The team reported significant improvements in Tpi after system upgrades.
89. The Tpi is a key indicator for turbine maintenance schedules.
90. They documented changes in Tpi over the turbine's operational lifespan.
91. The Tpi is often referenced in turbine performance standards.
92. The study examined how Tpi affects overall system reliability.
93. The Tpi was incorporated into the turbine’s performance metrics.
94. Engineers sought to innovate designs that would increase Tpi.
95. The Tpi helped them identify areas for improvement in turbine efficiency.
96. The project aimed to establish best practices for optimizing Tpi.
97. The Tpi was highlighted as a major factor in their research findings.
98. They reviewed Tpi data to support their engineering decisions.
99. The Tpi is essential for determining the feasibility of turbine installations.
100. The turbine's performance was enhanced through the optimization of Tpi.