The phrase "freeze-drying technology" is correct and usable in written English.
It can be used when discussing advanced preservation techniques, like in the sentence "Freeze-drying technology has allowed us to extend the shelf life of many different types of food."
However, the weak point of freeze-drying technology is its large energy consumption.
At the end, the outlook on future development of freeze-drying technology for tissue engineering are addressed.
In this process, an efficient and easy-to-accomplish method combining in situ biomimetic synthesis with freeze-drying technology was applied.
This study demonstrates the potential to control ice crystal formation in highly concentrated system for process design of energy efficient freeze-drying technology.
Porous gelatin scaffolds with microtubule orientation structure were manufactured by unidirectional freeze-drying technology, and their porous structure was characterized by scanning electron microscopy.
In view of its good thermal stability and solubility, PIIK foams with low density between 80 mg/cm3–350 mg/cm3 have been prepared via thermal induced phase separation and freeze-drying technology.
The feasibility of both nano spray drying and freeze-drying technologies were both investigated to transform of colloidal lipid nanoparticles into dry powders.
Place the milk in a freeze-drying flask.
After freeze-drying, dry weights were calculated.
Therefore, we propose a novel design including microbial directed modification, freeze-drying method, and microwave technology in order to control the interface behaviours of ASS-LB.
The freeze-drying method introduced an advanced technology to produce highly porous 3D scaffolds with complex pore morphology, using a wide range of materials including natural polymer, synthetic polymer, and ceramics, which opened a vast opportunity in hard and soft tissue engineering especially for bone tissue.
