The phrase "alloy conditions" is correct and usable in written English.
It can be used in contexts related to metallurgy or materials science, referring to the specific conditions under which alloys are created or processed.
Example: "The manufacturer must adhere to strict alloy conditions to ensure the quality and durability of the final product."
Alternatives: "metal composition requirements" or "alloy specifications".
Four alloy conditions were tested; these included two rolling temperatures and two different ageing sequences.
The experimental results confirm the improvement of properties in all alloy conditions, evidenced at a microstructural level through significant changes in the dispersed phases and the matrix.
For two foundries manufacturing the same alloy and cast geometry, the process and alloy conditions used by one foundry will most likely be different from the other one.
Transmission electron microscopy studies of selected alloy conditions ensured that the recorded hardness variations reflected variations in the alloy microstructure.
Higher oxygen consumption was observed above the sensitised sample than above the unsensitised sample due to differences in the oxide films of the two alloy conditions.
The experimental observations support the distinction of two groups of alloy conditions according to the degree of coherency of the strength-controlling precipitates.
Such improvements were achieved irrespective of casting size, runner geometry and alloy condition (virgin vs. recycled) as long as melt flowed faster.
According to the potentiodynamic polarization test results, the coated samples subjected to ageing (200 °C -retrogression (250 °C -retrogression °C) heat treatment showed an enhancement on its corrosion resistance without significant losses in the mechanical properties, when compared to the aluminium 6061-T6 alloy condition.
This chapter discusses amorphous silicon alloys, deposition conditions, and microstructure of amorphous silicon.
The electrochemical characteristics of mechanically alloyed compound LaCaMgNi9, including the discharge capacity and the hydrogen diffusion coefficient, were studied as function of mechanical alloying (MA) conditions.
Especially in the Ni2Mn(Ga0.5Al0.5) alloy, the condition of the atomic order can be varied from a B2 to an L21 structure by the annealing temperature.
