The phrase "a maximum reflection of" is correct and usable in written English.
It can be used to describe something that represents the highest degree or fullest expression of a particular quality or characteristic.
Example: "The final report is a maximum reflection of our team's hard work and dedication throughout the project."
Alternatives: "a true representation of" or "the fullest expression of".
When the concentration of PNIPAM reached 0.05 g/mL, a maximum reflection ratio of 33% was observed which led to a decrease of the cell temperature by 6.0 °C compared with the cell without PNIPAM inside.
Lue et al. (2011) found an average reflection efficiency of ~10% and a maximum reflection efficiency of ~50% for the strongest magnetic anomalies.
Taking both the synergistic benefits of magnetic CoNi nanocrystals and electric nitrogen-doped graphene, the CoNi/nitrogen-doped graphene hybrids show a maximum reflection loss of −22 dB at 10 GHz with a matching thickness of only 2.0 mm, and the effective absorption bandwidth with reflection loss exceeding −10 dB is 3.6 18 GHz with the absorber thickness of 1.35 5.0 mm.
The results show that the rGO/porous Bi2Fe4O9 composite exhibits a maximum reflection coefficient of −71.88 dB at 13.8 GHz with a sample thickness of only 2.0 mm and an effective absorption bandwidth (reflection loss below −10 dB) of 4.24 GHz, greatly superior to the present graphene-based metallic oxide composite.
When the thickness is just 1.25 mm, the reflection loss values below −10 dB can be achieved from 13.8 to 18 GHz, with a maximum reflection loss of −25.9 at 16.1 GHz.
The epoxy based nanocomposites exhibited semi-conductive behavior and a maximum reflection loss of −15.4 dB at 16.5 GHz were obtained with thin thickness (1.6 mm) and low particles loading (2 wt%) of specimen.
A maximum reflection loss of −65.3 dB can be achieved at 6.8 GHz with a matching thickness of 3.4 mm for the hybrids with 20 mg original graphene oxide, and the effective absorption bandwidth with reflection loss values less than −10 dB covers 12 16 GHz with the absorber thickness of only 2.0 mm.
The double-layer absorbers, consisting of 30 wt% CNZF composite as matching layer and 30 wt% rGO composite as absorption layer, with total thickness of 2.5 mm, exhibited a maximum reflection loss (RL) of −49.5 dB at 16.9 GHz, as well as an effective bandwidth below −10 dB of as wide as 6.0 GHz from 12.0 GHz to 18.0 GHz.
By simply controlling annealing temperature, the hybrid nanowires annealed at 1300 °C present a maximum reflection loss (RL) of −22 dB at 16.8 GHz with a small thickness of 1.7 mm and an effective absorption bandwidth (RL < −10 dB, 90% EM wave absorption) covers from 8 to 18 GHz.
