"optimum lighting" is a correct and usable phrase in written English.
It is usually used in relation to different aspects of light such as color, amount, and direction. For example, you could use it in a sentence like this: "The cinematographer was able to create the perfect mood by using optimum lighting techniques."
The associated latencies as the assistant lights the subject, and the communication required from the photographer to achieve optimum lighting could mean missing a critical shot.
The fifth step is to use immersive visualizations provided in the system to identify and analyze the conditions of the lighting design by visually analyzing the lighting conditions, examining visual comfort to achieve an optimum lighting design, and analyzing and comparing quantitative information (Fig. 1e).
After completion of the peeling process, optimum lighting was sought for digital video recordings of the posterior pole.
Also, depending on the scenario being filmed, it may not be feasible to capture the perfect take such as a procedure in a barn, whereas the procedure could be explained on a model where there is time to provide explanation and set-up optimum lighting and sound.
All materials display optimum light absorption properties for visible light photocatalytic applications.
The engineering of such an energy-funnelling function in synthetic compounds would pave the way towards biomimetic molecular machines capable of achieving optimum light-to-mechanical energy conversion.
The solids crystallized in the orthorhombic Aurivillius-type structure and display optimum light absorption properties to be used as photocatalysts.
Finally, novel strategies for achieving optimum light delivery and maximizing sunlight utilization in photobioreactors are discussed including genetic engineering of microorganisms with truncated chlorophyll antenna.
The problems of photoinhibition and dark hydrogen uptake can be reduced by using a photobioreactor that is uniformly illuminated at the optimum light intensity.
It is shown that optimum light weight laminates are best achieved through the use of a relatively stiff, ionomer interlayer versus a traditional rubbery, poly-vinyl butyral (PVB) interlayer.
Since the stacked architecture leads to improved light distribution throughout the volume of the bioreactor, it reduces the need for culture mixing for optimum light distribution, and thereby potentially reducing operational costs.
