Efficient temperature compensation strategies for guided wave structural health monitoring.

By Anthony J. Croxford, Jochen Moll, Paul D. Wilcox, Jennifer E. Michaels. Ultrasonics, 2010

405 citations recorded by the source corpus.

Subfields: Biomedical Engineering, Civil and Structural Engineering, Mechanics of Materials

View Paper: https://www.semanticscholar.org/paper/5d2723f7216ede478419cc572f06b5765a868c60

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Biomedical Engineering

1. Xinlin Qing
2. J. M. Vivar-Perez
3. Hu Sun
4. Wenzhuo Li
5. Z. Ahmad
6. C. Willberg
7. Yishou Wang
8. Sascha Duczek

In Civil and Structural Engineering

1. Hu Sun
2. Wenzhuo Li
3. Yishou Wang
4. Xinlin Qing
5. J. M. Vivar-Perez
6. Z. Ahmad
7. C. Willberg
8. Sascha Duczek

In Mechanics of Materials

1. Xinlin Qing
2. J. M. Vivar-Perez
3. Hu Sun
4. Wenzhuo Li
5. Z. Ahmad
6. C. Willberg
7. Yishou Wang
8. Sascha Duczek

Citations in the corpus

• Piezoelectric Transducer-Based Structural Health Monitoring for Aircraft Applications (2019, background): “There are some research reports about temperature compensation to reduce the effect of the change of amplitude, phase and wave shape, such as baseline signal stretch (BSS) [81], Optimal baseline subtraction (OBS) [82], combination of BSS and OBS [83,84], and combination of adaptive filter and optimal”
• Simulation Methods for Guided Wave-Based Structural Health Monitoring: A Review (2015, background): “Pre-stressing, temperature variations [40,53,160] and different moisture contents are among the environmental conditions that influence the propagation of ultrasonic waves.”