Sentence examples for behavior of the cladding from inspiring English sources

Relying on the thermal hydraulic boundary parameters calculated by RELAP5 code, analysis of a SA caused by the large break loss-of-coolant accident (LBLOCA) without mitigating measures for Qinshan Phase II Nuclear Power Plant (QSP-II NPP) was performed by SAP for finding the key sequences of accidents, estimating the amount of hydrogen generation and oxidation behavior of the cladding.

An investigation on mechanical property and electrochemical behavior of the cladding materials aged at 400 °C for different times was carried out by small punch test (SPT) and double loop electrochemical potentiokinetic reactivation (DL-EPR) test.

To evaluate the coating, phase composition, microstructure, hardness and wear behavior of the clad layers were investigated.

The evolution of the microstructure during cooling was elucidated and the relationship among the wear behavior of the clad layer, microstructures, and microhardness was determined.

Experimental investigation of the behavior of the clad tubes at various operating conditions of pressure, temperature and heating rates suggest that ballooning takes place in fast reactor fuel clad at higher burn-up (which results in an increase in pressure and temperature of the clad tube) and lower heating rates.

The transient behavior of the fuel cladding of a sodium-cooled fast reactor (SFR) is one of the main design issues concerning the safety of a reactor.

For ensuring safety margin of the fuel rod of an SFR, the effect of aging on the transient behavior of the fuel cladding should be considered.

The effect of volume fraction of the Ti5Si3 primary phases on microhardness and room temperature dry sliding wear behavior of the PTA cladding coatings was discussed.

Further, characterization of clad layer morphology, micro-hardness in the subsurface layer, wear behavior of the cladded surface and elemental compound formations were carried out.

The friction and wear behavior of the laser-clad coatings at room temperature and elevated temperatures of 600 °C and 700 °C were evaluated using a ring-on-block tribometer.

The phase structure of the oxidation films formed during the wear test process played important role on the wear behavior of the laser-clad coatings.