65 points Gravityloss 3 days ago 36 comments
Sath52 3 days ago | parent
And logical, now that we can produce them easily enough.
This, is one of many uses of the rocks.
dude250711 2 hours ago | parent
Tepix 1 hour ago | parent
db48x 1 hour ago | parent
xnx 2 hours ago | parent
alberth 2 hours ago | parent
londons_explore 2 hours ago | parent
I believe the main difficulty is making large and pure diamonds. Making small low purity diamonds is cheap and easy to scale.
phegler 2 hours ago | parent
just one tiny tiny microscopic question...
why would someone use diamond wafer costing 1000x more than a silicon wafer??!
:)
hansvm 2 hours ago | parent
>> 50x faster switching
It's hard to say which applications will benefit the most, but orders of magnitude improvement tend to enable qualitative shifts downstream.
Not to mention, 1000x is just the cost right now while the tech is new.
TehCorwiz 2 hours ago | parent
ktm5j 1 hour ago | parent
neerajsi 1 hour ago | parent
jbms 2 hours ago | parent
luz666 1 hour ago | parent
Very low power chips might be the main application, as there is already a huge market (laptops and phones).
Or maybe there will be a whole set of new rf chips, profiting from the clock speed.
zardo 1 hour ago | parent
TGower 2 hours ago | parent
MengerSponge 1 hour ago | parent
Superfluid helium's maximum thermal conductivity is roughly 100x diamond's maximum!
hyperhello 1 hour ago | parent
jcims 26 minutes ago | parent
Never thought about this before. Would that mean that heat propagates much more quickly? Possibly even approaching the speed of sound of the material?
Waterluvian 1 hour ago | parent
ACCount39 22 minutes ago | parent
mitxela 1 hour ago | parent
genxy 1 hour ago | parent
ForgotMyUUID 39 minutes ago | parent
ginko 1 hour ago | parent
cwillu 49 minutes ago | parent
fhdkweig 12 minutes ago | parent
poppafuze 53 minutes ago | parent
paaloeye 25 minutes ago | parent