"high material utilization" is a correct and usable phrase in written English.
It refers to the efficient use of materials in a particular context. Example: The company's production process has a high material utilization rate, resulting in cost savings and minimal waste.
Due to the high material utilization and the associated resource and energy efficiency, production processes from the field of cold forging of steel are of great importance.
In today's world of industrialization, mass production and high material utilization are the crucial factors for growing industries that necessitate the need of finding correct cutting patterns which may result in a small improvement.
The current findings demonstrate the importance of building a conductive network at the electrode level to ensure high material utilization at high mass loading and may shed light on future designs of Si-based anodes with high areal capacity.
Although the SLM process offers a great advantage in manufacturing complex parts at a high material utilization rate [15], it is affected by many factors, such as laser energy input and scan speed, scan strategy, powder material, powder size and morphology.
The B-BRB has a remarkable advantage over a common buckling-restrained brace (BRB), in which the newly formed cross-section of the B-BRB is spread outwards by spacing two cores, hence resulting in higher material utilization efficiency in its structural design.
Through the improvement of energy efficiency, urban landscape optimization, green roof construction, high reflectivity material utilization and green land cultivation, UHI effects could be significantly mitigated.
The cathode erosion rate with this electrode configuration was a factor of 2 3 lower than that in a conventional cathodic arc indicating higher cathode material utilization.
Owing to dual conductive networks both within single particles formed by carbon and between different particles formed by graphene, low electrical resistance can be maintained at high mass loading, which enables a high degree of material utilization.
As a relatively new component with a higher efficiency of material utilization, functionally graded thickness (FGT) structure with probably varying wall thickness becomes fairly promising.
As a relatively new component with a higher efficiency of material utilization, functionally graded thickness (FGT) structure with desired varying wall thickness has been becoming more and more attractive.
The improved cell performance is attributed to the functional carbon-coating layer, which serves as an upper current collector to facilitate electron transport for high active-material utilization and a conductive network for trapping and depositing dissolved sulfur-containing active materials, as confirmed by scanning electron microscopy (SEM) and energy-dispersive X-ray spectroscopy (EDS).
