Examples of using Oxide layer in English and their translations into Serbian
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Cyrillic
Obviously the oxide layer is generally later ground off.
Vacuum atmosphere: low oxygen level without oxide layer on the surface.
If you wanted to do that, the oxide layer would have to be stripped off through polishing/steam cleaning.
Flash memory works by having two transistors separated by a thin oxide layer.
The coating is made of metal oxide layers 70-90 nm thick.
The thickness of the oxide layer that is formed during the process depends on the voltage of electricity that has been that has been applied to it.
The more voltage that is applied during the process,the thicker the oxide layer that is achieved.
The most common method is to form an oxide layer on the surface with the use of electricity.
The color on the surface is apparent because light reflects through the created oxide layer to create a color.
The quality and consistency of the oxide layer formed, largely depends on the quality of the surface finish.
The reactivity is not always obvious due to the rapid formation of a stable oxide layer, which prevents further reactions.
This oxide layer is extremely thin, through which the natural luster of the steel surface can be seen, giving stainless steel a unique surface.
When used properly,can eliminate harmful etching the oxide layer and a zone with a reduced chromium content.
This oxide layer is extremely thin, through which you can see the natural luster of the stainless steel surface, giving the stainless steel a unique surface.
This method will allow you to easily remove the unnecessary oxide layer on the metal in the shortest possible time.
This oxide layer is extremely thin, through which you can see the stainless steel surface of the natural gloss, making the stainless steel has a unique surface.
If this process is carried out correctly,it will be possible to eliminate the oxide layer and the region with a low chromium content.
Ceramics(oxides) are much harder than most metals,so to improve the scratch resistance of aluminum,“anodizing” is used to thicken the oxide layer.?
This concoction could replace the indium tin oxide layer technology that's currently in use, although we're yet to see it appear in consumer devices.
The color that is apparent on an anodized piece of titanium depends on the thickness of the oxide layer that has been applied to it.
An oxide layer forms on the surface of beryllium metal that prevents further reactions with air unless heated above 1000 °C. Once ignited, beryllium burns brilliantly forming a mixture of beryllium oxide and beryllium nitride.
Anodizing is an electrolytic passivation process used to increase the thickness of natural oxide layer on the surface of metal parts.
On top is the control gate(CG), as in other MOS transistors, butbelow this there is a floating gate(FG) insulated all around by an oxide layer.
It has the fourth highest melting point of all metals andis able to form extremely thin and protective oxide layers for high-quality capacitors, making it an excellent material for laboratory crucibles.
The so-called 304 stainless steel black circle or 304 stainless steel rod(black stick), refers to the surface black thick, direct hot rolling, forging or annealing process,do not deal with the surface of the oxide layer of the round bar.
It has the fourth highest melting point of all metals andis able to form extremely thin and protective oxide layers for high-quality capacitors, making it an excellent material for laboratory crucibles.
It has the fourth highest melting point of all metals andis able to form extremely thin and protective oxide layers for high-quality capacitors.
It has the fourth highest melting point of all metals andis able to form extremely thin and protective oxide layers for high-quality capacitors.
It has the fourth highest melting point of all metals andis able to form extremely thin and protective oxide layers for high-quality capacitors.
This creates an avalanche discharge of electrons,which have enough energy to pass through the insulating oxide layer and accumulate on the gate electrode.