In civil engineering, the testing of structures allows a large number of chemical, mechanical and micro macro structural parameters to be determined.
Vibration measurements can offer an effective, inexpensive and fast means of non-destructive testing of structures.
These phenomena pose some difficulties under operating conditions commonly encountered during dynamic testing of structures.
This work supported the development of a gas-actuated penetration device at NASA Langley Research Center for high-energy impact testing of structures.
Vibration measurements offer an effective, inexpensive and fast means of non-destructive testing of structures and various engineering components.
Uncertainty arises naturally in the dynamic testing of structures due to measurement noise, sensor alignment error, modeling error, etc.
Wireless sensor network (WSN) is one of the most compelling technologies for performing various tasks such as disaster recovery [1], environmental monitoring [2], remote surveillance [3], non-destructive testing of structures [4], military communication [5], and industrial automation [6].
Laboratory testing of structures placed in combined wave current flows is a valuable source of information for the fulfillment of offshore engineering related tasks and the development of ocean energy devices.
Progress in the development of methods to predict protein folding is measured by biennial Critical Assessment of Structure Prediction (CASP) programs, which involve blind tests of structure prediction methods.
SIMPROF is less powerful than ANOSIM, intended for a posteriori tests of structure in the data.
An interesting observation from these power calculations is that test of function (color vision) performs better than test of structure (OCT).
