The phrase "adjacent temperature" is correct and usable in written English.
It can be used in contexts where you are discussing temperatures that are close to or next to each other, such as in scientific or technical writing.
Example: "The adjacent temperature readings from the two sensors indicated a significant difference in environmental conditions."
Alternatives: "neighboring temperature" or "surrounding temperature".
In suitable conditions, such as 25°C and 35, the PC contents were reduced to 0.2662 mg/g FW, which decreased by 1.51% relative to the initial content, decreased by 16.42% less than adjacent temperature (such as 30°C and 35), and decreased by 9.36% less than adjacent salinity (such as 25°C and 40).
In unsuitable conditions, such as 15°C and 50, the PC contents were reduced to 0.0291 mg/g FW, which decreased by 25.22% relative to the initial content, decreased by 1.51% compared with adjacent temperature (such as 20°C and 50), and decreased by 1.03% compared with adjacent salinity (such as 15°C and 45).
In unsuitable conditions, such as 15°C and 50, the PE contents were reduced to 0.5934 mg/g FW, which decreased by 91.53% relative to the initial content, decreased by 8.86% compared with adjacent temperature (such as 20°C and 50), and decreased by 11.47% compared with adjacent salinity (such as 15°C and 45).
In suitable conditions, such as 20°C and 25, the PE contents can be reduced to 1.4272 mg/g FW, which decreased by 8.15% relative to the initial content, decreased by 47.64% less than adjacent temperature (such as 15°C and 25), and decreased by 41.84% less than adjacent salinity (such as 20°C and 30).
To remedy this drawback, in step 4b we introduce randomness into the converging direction so that the global minimum may be achieved by the second rule of the MH algorithm in step 5. Step 7 checks the absolute difference of energy between pairs of two adjacent temperature points.
Heat transfer across all interfaces from the tissue surface through multiple layers of insulating dielectrics surrounding the small buried temperature sensor and into an adjacent temperature-regulated water coupling bolus was studied using 3-D thermal simulation software.
In suitable conditions, such as 25°C and 35, the Car contents attained 0.1178 mg/g FW, which increased by 3.83% relative to the initial content, increased by 3.30% compared with adjacent temperatures (such as 30°C and 35), and increased by 1.71% compared with adjacent salinity (such as 25°C and 40).
In unsuitable conditions, such as 15°C and 45, the Car contents were reduced to −0.2068 mg/g FW, which decreased by 28.63% relative to the initial content, decreased by 26.69% compared with adjacent temperatures (such as 20°C and 40), and decreased by 15.5% compared with adjacent salinity (such as 15°C and 40).
In suitable conditions, such as 20°C and 35, the Chl a contents attained 0.4802 mg/g FW, which increased by 13.48% relative to the initial content, increased by 18.77% compared with adjacent temperatures (such as 15°C and 35), and increased by 13.96% compared with adjacent salinity (such as 20°C and 40).
In unsuitable conditions, such as 15°C and 50, the Chl a contents were reduced to 0.2231 mg/g FW, which decreased by 12.23% relative to the initial content, decreased by 7.16% compared with adjacent temperatures (such as 20°C and 50), and decreased by 17.7% compared with adjacent salinity conditions (such as 15°C and 45).
The present study was designed to develop a method for electively increasing or decreasing the dimensions and volume of cryolesions by altering adjacent myocardial temperatures.
