So now we are looking at another new [? technology ?]
of diamond printing.
This one is called Helium MBox.
It always works in pairs, of a scanner and a microscope.
So we will look at a scanner first.
What we need to do is lomo mapping [? like ?].
So we map the outline of the rock
and then put the stone into the microscope.
Then we will do all the [? porting ?]
of the intrusions.
And then we input all the [? positions ?]
back to the computer.
Then we will do the [? planning. ?] This machine
especially for [? vex sizes. ?] because the accuracy
of the microscope.
The magnification is more than 150 times.
So a very, very tiny inclusion, we can see it in a [INAUDIBLE].
And after doing all the input of information,
we will start doing the planning of the rock.
So here some results.
So you can see this one, it's the [? fiche. ?]
So we always choose the best option
according to the value of the rock.
B means one billion, so is 2 billion stone [INAUDIBLE].
The first one is 5 carat.
You can see here, 5 carat.
And then this one is 4 carat.
And then you can see when I move [? down, ?] the [? red one ?]
is going down, but there is an [? elect ?] combination
of the stone.
So what we need to do is choose the best
options [? by the variable. ?]
And also the difficulty of doing the stone.
So like this one it's a 5-pronged three-six carat
and a [INAUDIBLE] carat.
So if this one is inclusion inside a stone,
so difference should be a as ve f 2 stone and the smaller stone
should be, so you see [? there's lopping ?] inside
a stone.
No, should be So according to the location on this one,
should be a ve f 2 stone.
So we would compare the price of it
and then choose the best option.
So what about this one?
It's the 5 carat [? and blue cut ?] and this one
is the 4 carat.
This one is the green color.
And you can see this [? stop ?] is inside
a bigger stone of 5 carat, so this one should be ave x 1.
And this one should be ave x 2.
And [? if you check it ?] you can see,
we are getting [? leaf ?] a piece,
tiny as a feather inside a rock.
So we can get a higher carat [INAUDIBLE]
of the [? pourit. ?] and getting more money.
We have the microscope costs involved.
It's a very powerful lens of 150 times magnification,
so we can clearly see all the edges of [? the betas. ?]
or the tiny [? pinpoint ?].
And it's all done by human eye.
Now he's searching for the surface [? quest. ?] So
it's all the [? betas ?], on the surface.
So you can see in the middle of the screen there is [? lathe ?]
[? blight ?] [? beta. ?] And he's going
to [? talk his beta. ?] The shape and the depth of it.
And now you can see the crack is on the surface.
So he is now plotting the outline of the crack.
And then you can see how the crack
looks inside the 3D model.
So you see one.
So you can see the depth of a crack,
and then the shape of a crack.
So he is now doing the fine-tuning of the shape.
We can always compare the 3D models by moving the stone
and then see if the shadow of the crack
is moving along with the stone.
So he's breaking the [? feather ?] into two parts
because the back of the [? feather ?] is uneven.
So he has to [? record it ?] twice
so one is on the right-hand side and one
is on the left-hand side.
Using MBox is a very time-consuming process.
Normally one stone, it takes two to three hours to finish.
The advantage of this machine is very, very accurate
because you can see the edge of the beta very clearly.
And you can locate all the tiny pinpoints inside a stone.
But the disadvantage is we use the human eye
to do the [? porting. ?] So there may be some human error.
But it feels very powerful to the accuracy in the [INAUDIBLE]
because we can see the edge of the [? betas ?] very clearly.