The phrase "critical utilization" is correct and usable in written English.
It can be used in contexts where the importance or significance of using something effectively is being emphasized.
Example: "The critical utilization of resources is essential for the success of the project."
Alternatives: "essential use" or "vital application".
Among various silicides, Ni silicide NWs with low resistivity, low contact resistance, and excellent field emission properties [19, 20] are considered as a promising material in the critical utilization for the future nanotechnology.
Furthermore, numerical results reveal that there exists a critical utilization factor of the primary resources from which it is no longer possible to guarantee the required QoS of SUs and, therefore, delay sensitive services cannot be even supported in CRCNs.
Also, the obtained results show that there exists a critical utilization factor of the primary resources from which it is no longer possible to guarantee the required quality of service of SUs and, therefore, services with hard-delay constraints cannot be even supported in CRCNs.
To illustrate this methodology an asset selection problem has been identified: given a fleet of industrial vehicles (diesel electric locomotives), select the best subset for mission-critical utilization.
Kluyveromyces marxianus possesses a useful potential to assimilate a wide variety of substrates at a high temperature, but the negative effect by coexisting glucose is critical for utilization of biomass containing various sugars.
Likewise, we found that preoperative prothrombin time was significantly (P = 0.025) higher in the nonsurviving patients versus the surviving patients who required postoperative critical care utilization, and preoperative albumin was nearly significantly (P = 0.056) lower in the nonsurviving patients versus the surviving patients who required postoperative critical care utilization.
Cost-effective and reliable damage detection is critical for the utilization of composite materials.
Long-term storage of stable nanoparticulate systems is critical to the utilization of nanotechnology in biomedical applications.
Understanding the gas production behavior from hydrate deposits is critical to the utilization of the gas hydrate resource.
Understanding and modeling the behavior of surfactants in corrosive environments is critical to optimal utilization of surfactants as corrosion inhibitors.
Motion generation based on this approach is critical to the utilization of dynamically coupled driving and joint stops, and presents great difficulties.
