Fiber-optically instrumented rock strain and temperature strips (FROSTS) are a new method for monitoring in situ strain and temperature in intact rock masses.
Though with the increase of concentration of stripping chemicals and temperature, stripping percentages were improved; processing damage to the fabric such as losses in strength, weight and pilling resistance ratings was found.
After 1 h at room temperature, strips were washed 5× with PBST and developed using Opti-4CN substrate Bio-Rad Laboratoriess, Hercules CA, USA).
After overnight incubation at room temperature, strips were washed three times with PMT, and a peroxidase-labeled antibody to human IgG, diluted in PMT 1 : 2000 (Sigma Che. Co., Milan), was added and incubated at room temperature for 90 min.
Temperature strips that are placed horizontally across the forehead have been shown to be inaccurate in studies.
Fabric strength loss percentages increased gradually with the increase of concentration of stripping chemicals and temperature of stripping bath.
Based on this experimental study, the conclusions drawn were: 1. Fabric strength loss percentages increased gradually with the increase of concentration of stripping chemicals and temperature of stripping bath.
In Batch Annealing, temperature of strip depends upon thickness, width, weight and stack position of the coil.
In this paper fatigue crack closure under in-phase and out-of-phase thermomechanical fatigue (TMF) loading is studied using a temperature dependent strip yield model.
The equation is derived from systematic calculations of the crack opening stress with a temperature dependent strip yield model for both plane stress and plane strain, different load ratios and different ratios of the temperature dependent yield stress in compression and tension.
