Sentence examples for temperature reverse from inspiring English sources

The temperature reverse mode is slightly observed between +700 and −200 masl.

It is based on an extensive set of high temperature reverse bias endurance tests, performed on devices featuring different packages.

At higher temperature, some hydrocarbons exhibit high fluidity, low viscosity, low density, high vaporization etc., while at a lower temperature, reverse is the case.

The results of high temperature reverse bias (HTRB), high temperature operating life (HTOL), temperature humidity bias (THB), temperature cycling (TC), and inductive avalanche ruggedness tests conducted on vertical GaN devices packaged in standard power packages are reported.

We find that controlling these parameters (carbon and strain rate) can be used to manipulate the room temperature reverse transformation from martensite to austenite, plastic instability, short-range ordering (SRO), TRIP effect, and strain hardening of these steels.

These materials exhibit the exact characteristics (e.g., structural endurance and high oxygen redox capacity and exchange kinetics) required by the low temperature reverse water-gas shift chemical looping process.

But when the pressure hit 300,000 atmospheres, the melting temperature reversed course and dropped, eventually causing the metal to melt at room temperature when the pressure reached 1.2 million atmospheres.

We therefore checked whether reducing temperature reversed the effect of hypoxia.

A re-transfer for a further 24 h to the permissive temperature reversed this effect to some extend (supplementary figure S1).

Automated resistance measurements during thermal cycling between −20 and 250 °C revealed a wide composition range that undergoes reversible phase transformations with martensite transformation start temperatures, reverse transformation finish temperatures and transformation hysteresis ranging from −15 to 149 °C, 5 to 185 °C and 8 to 60 K, respectively.

A discussion of a proper characterization method for selecting the maximum rated junction temperature for devices operating at high temperatures is given by comparing the different testing methods: Static performance (including and excluding self-heating effects), Short Circuit Safe Operating area and High-Temperature Reverse Bias.