I'm interested in how this method could help with replacing/installing liquid-cooled components, letting them gracefully(and flexibly) exit and join the loop without a lot of added complexity. ...Though that might already exist. Also, could it be implemented at desktop size?
That is very interesting! I would totally try that out if they made one for the consumer/non-server market. Does this negative pressure solution fit the dell R lineup?
My question is where can I get these for my homelab rack? Like a site where I can drop my server or cpu model and give them $100 per block and $25 per fitting or tube set, and $1k for a home lab sized pump and rad setup.
I'm interested in how this method could help with replacing/installing liquid-cooled components, letting them gracefully(and flexibly) exit and join the loop without a lot of added complexity. ...Though that might already exist. Also, could it be implemented at desktop size?
That is very interesting! I would totally try that out if they made one for the consumer/non-server market. Does this negative pressure solution fit the dell R lineup?
My question is where can I get these for my homelab rack? Like a site where I can drop my server or cpu model and give them $100 per block and $25 per fitting or tube set, and $1k for a home lab sized pump and rad setup.
👍Perfekt
Are they copper heat sinks, or litteraly red hot? My bet is copper, but im genuinely curious.
See 'incandescence'. Visible red glow starts at temperatures far above what computers operate at.