The phrase "ambient fire" is correct and usable in written English.
It can be used to describe a fire that creates a surrounding atmosphere or mood, often in a metaphorical or artistic context.
Example: "The ambient fire flickered softly in the corner, casting warm shadows across the room."
Alternatives: "atmospheric fire" or "surrounding fire".
The present study also suggests that the reaction kinetics during the fire-through Ag contact formation is effectively controlled by adjusting PO2 in the ambient firing conditions as well as by modifying the glass chemistry to alter the solubility of Ag+ ions.
This paper presents the development and partial verification of a computational model that can simulate the structural behaviour of a short or slender, concentrically or eccentrically loaded, unwrapped or FRP wrapped column under both ambient and fire conditions.
This paper presents a consistent nonlinear 3-D finite element approach, adopted by the author over the last ten years, for analysing steel, cold-formed steel, stainless steel and composite columns at ambient and fire conditions.
Therefore, the structural behaviour of WSS stud sections was investigated under ambient and fire conditions using finite element analyses and their capacities were compared with those of conventional LCS studs.
Both the ambient and fire tests highlighted the occurrence of membrane action, either supporting loads higher than the theoretical yield-line load in the case of the ambient tests, or reaching higher failure temperatures compared to those calculated based on yield-line theory.
The results show that WSS studs have much higher load carrying capacities than LCS studs under ambient and fire conditions and that direct strength method based design rules are simpler to use than the effective width based design rules for the structural fire design of LSF wall systems made of both LCS and WSS studs.
The thermal behavior is also of practical interest for conditions associated with temperatures above the ambient, as in fire damage, curing or process involving heating procedures.
The moment capacity results were compared with the predictions from the available ambient temperature and fire design rules and suitable recommendations were made.
The RRSI was calculated using the average (weighted by the inverse of the standard errors) of values from studies reporting associations between all-cause mortality and short-term elevations of ambient PM10 during fire events (Morgan et al. 2010; Sastry 2002) and PM2.5 (Hänninen et al. 2009).
In order to compensate for the loss of output caused by seasonal changes in ambient temperature, supplementary firing in the heat recovery steam generator can be used to generate additional power and return the power output to 640 MW at 45 °C, at the expense of an increase in fuel costs and a drop in efficiency from 50.95% to 43.46%, without and with supplementary firing respectively.
