The sensor system consisted of an array of seven metal oxide gas sensors, a gas flow controlling module, heating module, gas adsorption-desorption module and classifiers for data analysis.
Live cell imaging was performed using an inverted Zeiss LSM 700 confocal microscope equipped with a CO2 module, heating unit, and heating plate using a 40×/0.75 M27 EC Plan-Neofluar objective.
An experimental system consisted photovoltaic module, heating and cooling sub systems, proportional integral derivative (PID) control unit was designed and built.
Radiosynthesis of [68Ga]3 was performed using an automated synthesis module by heating 20 μg of compound 3 with [68Ga]GaCl3 aq).
Each inlet of power module heat sinks is tested by an impeller anemometer.
Also, the module number and module heat transfer area play an important role in improving the system COP and SCP.
Module heat exchange systems were optimized using multi-dimensional models of coupled fluid dynamics and heat transfer.
Airflow estimates from the flow network models are used to predict the airflow rate through each power module region, as well as to estimate the surface and junction temperatures of each power module heat sink.
In the developed thermo-hydro-mechanical (THM) module, heat conduction across the solids in the rock matrix and heat convection between the injected fluid and solid particles are coupled.
A novel tube-shell Li-ion battery pack with a passive thermal management system (TMS) using composite phase change material (PCM) was designed to control cells temperature rising and improve battery module heat transfer.
