This picture of the subsurface thermal field shows continuously increasing temperatures from north to south in the basin, as well as areas with deviating temperature patterns.
The hardness increased continuously with increasing temperature from 1,200°C to 1,350°C (Figure 5), due to an increased densification, reaching a maximum hardness at full densification when temperature was at 1,350°C.
The total sugar components of EPH decreased continuously with increasing temperature or time, which was due to the co-precipitation of lignin in acid conditions.
In the case of PAA/PAM, pHcrit continuously decreased with increasing temperature, from pH 3.5 at 0 °C to pH 1.9 at 60 °C (UCST-type).
It is well-known that during the hydroprocessing of heavy feeds, catalyst aging is counterbalanced by continuously increasing reaction temperature.
The transient friction coefficient μt during experiments with continuously increasing testing temperature Tt = 25 700 °C initially decreases for all samples, attributed to drying of the environment and an effective softening of both coating and counterface.
Although, in most cases, the addition of CNTs can inhibit the matrix grain growth during the sintering process due to the pinning effect of the CNTs [31], the present analyses indicate that this pinning effect of CNTs can be conquered if continuously increasing sintering temperature or prolonging holding time after accomplishing the materials densification.
Conversely, above ~600 K the Mo K edge position of Mo(O,N 3 continuously shifted to higher energies with increasing temperature.
Continuously increasing the sintering temperature above 1,090°C, the ferroelectric properties decreased due to heavy volatilization of Na and K at high sintering temperature.
