What are the temperature control units for energy storage containers

Select a commercial thermal insulating container of an appropriate size for their storage. Leave sufficient space for the integration of a multi-temperature control system. Thus, the structural parameters of the system ( ( {d}_ {epsilon, {i,j}})) can be established.

This suggests that when the temperature differences among the storage spaces are significant, more energy may be employed to negate the negative effects of temperature interactions. Moreover, a specific type of PCM can only strictly control the temperature of a single zone 19, 20, 21, 28, 29, 30.

Implementing multi-temperature control systems is crucial for maintaining high efficiency in various critical domains such as goods transportation 1, cold chain logistics 2, 3, 4, battery thermal management 5, building environment 6, and thermal energy storage 7, 8, 9, 10, 11.

However, the need for efficiency and convenience in transportation restricts the application of some temperature control technologies that necessitate additional mechanical equipment or real-time external energy input, such as vapor compression refrigeration and electric heating.

To ensure a suitable operating environment for energy storage systems, a suitable thermal management system is particularly important.

For the container without AMTC, the initial temperatures of each temperature control zones were set as: T① = 325.55 K, T② =  322.11 K, T③ = 318.50 K, T④ = 310.03 K, T⑤ = 305.55 K, T⑥ = 299.61 K, T⑦ = 290.44 K, T⑧ = 287.17 K, T⑨ = 284.42 K. The initial temperatures of the remaining parts were 294.15 K.