How to pronounce “alloy” in English

alloy composition.

in a titanium alloy structure.

This is a nickel alloy.

In the nickel super alloy, It slows the atomic-scale rearrangements, enhancing the alloy's resistance to deformation even at temperatures above 1,000 degrees Celsius.

or this alloy or whatever, and it would take us years to try to sort through what the optimal one is.

And for the specific alloy we're looking at right now, it would probably have to be imported.

Bronze is an alloy of copper and tin.

than an ancient alloy.

We got typical alloy.

But this alloy was used in Southern China.

So the strange alloy doesn't in itself disprove the authenticity of the piece.

The first nickel alloys used in jet engines were developed in the 1940s.

And these alloys could keep their strength for thousands of hours, a tenfold improvement in life.

Most modern super alloys contain as many as 10 different elements, all carefully balanced in their relative abundances for the desired properties.

- This is a billet of alloy that's gonna fill the whole of that mold.

As we zoom in on the alloy, a pattern emerges.

And that's what makes this alloy so strong.

but also enough gamma to keep the alloy ductile, so that it can bend without breaking.

When you heat up the alloy, aluminum at the surface reacts with oxygen to form a thin continuous layer of aluminum oxide.

- But even with these advancements in alloy chemistry, there's still one fundamental problem.

- You start by pouring molten super alloy into a ceramic mold that's mounted vertically and heated to about the same temperature as the melt.

But now with a new titanium alloy film behind the OLED along with a titanium backplate, they've also made a pretty big step towards getting rid of their

by using a higher performance alloy rather than the cast iron.

But then we did an alloy examination and the alloy comes out fine.

It's made of a titanium alloy.

And these subcontracted workers dipped the unfinished alloys in their vats.

It took Y-shaped wire made from a nickel alloy as an input.

We've since gone away from that and gone to an alloy that we can use.

This is a typical element distribution in the alloy.

So even though it's a very strange alloy, we haven't been able to-- well, what we have found is that this strange alloy does

Well, when these nickel alloys were first used in jet engines, no one actually knew.

- But strength alone isn't what makes these alloys special.

and gamma prime phases that make these super alloys so strong.

In the furnace, the nickel super alloy outperforms all the other samples, surviving up to 1,200 degrees Celsius.

So in this instance, the alloy is completely atypical.

So for this image, here's its alloy distribution.

One of the challenges with this one is that it's a strange alloy of copper, zinc, and nickel.

By adding chromium and cobalt, engineers created alloys that could handle 800 to 900 degrees Celsius, around 100 degrees hotter than the steel used before.

So that's why the strength is very high relative to other alloys.

Single-crystal blades can withstand stresses and temperatures that would destroy ordinary alloys.

And a huge part of that improvement comes down to advances in these nickel super alloys.

There's a combination of different alloys in the stove that are used in different locations, based on the temperature that they're exposed to,

Now, you could try doing similar tests for other metals like this titanium alloy.

While steel and titanium strength drops off, in the nickel super alloy, you actually get a peak.

And that's a really hard problem to solve because normally, as a molten alloy cools, tiny crystals start to form all throughout the liquid.

And finally, you said you were moving away from cast iron to a different alloy for the inner part?

So this big chunk of zinc and the big chunk of lead suggest to us that this is a modern alloy, rather

And by adding other elements, we can tune these super alloys.

And it was while working for Lord Hankey that he picked up details of the Tube Alloys project, which was the initial decision to develop nuclear weapons