680 karma · joined March 22, 2012
I'm not an RF design engineer, but for this type of equipment, I do feel like there's some truth to "you get what you pay for". It's plain to me that the Ruckus APs have superior RF front-ends that are better able to deal with the noise. They're more expensive than Ubnt for sure, but that extra cost was very much worth it for us, to avoid the frequent disconnects that the users were having to deal with.
That said, I'd like to provide one caveat: In my experience, they tend to not do great in very noisy RF environments. Twice now I've deployed Unifi APs in offices with RF spectra similar to what the OP has going on, and we had nothing but problems. In each case, we ripped out the Ubnt gear, replaced with equivalent Ruckus APs (with their cloud controller) and haven't had a single problem.
I admit this is not a large sample size, but thought it worth mentioning.
I admin a number of GSuite accounts, and we experience fairly frequent (~monthly) periods of strange behavior with Hangouts/Meet, and Google Drive.
Fortunately Google is very good about providing updates via email to administrators as they're working through an issue.
If you're using Filevault2, the entire hard disk is encrypted, including the cache location.
Good thing she doesn’t have to be. Fortunately nearly all consumer-grade routers ship with sane defaults, and make it difficult (if possible at all) to change the settings such that the security of the network is severely compromised.
There are millions of IPv4 systems at large enterprises and educational institutions that have public addresses, and do you think they’re accessible from the internet? Didn’t think so. They’re behind a default-deny stateful firewall, very similar in function to the stateful firewall that’s present on every single consumer router you can buy.
NAT is a hack that breaks things, and imposes un-needed performance bottlenecks.
Set that rule, and come back to a beautifully empty bucket 24 hours later, after Amazon’s gnomes have takes care of the issue for you.
All in all, they clearly do push huge amounts of data out of AWS, but that data account for a very small percentage of the total data that gets pushed out to clients via their CDN.
$ whois datamantle.com | grep "Name Server"
Name Server: NS1.DREAMHOST.COM
Name Server: NS2.DREAMHOST.COM
Name Server: NS3.DREAMHOST.COM
Hrm...using dreamhost for their nameservers. Interesting choice. $ whois $(dig +short datamantle.com) | grep OrgName
OrgName: Google Inc.
Not dogfooding their own service? I think I'll pass.And that was on a very ad-hoc wire antenna.
$ curl -s "http://www.wunderground.com/history/airport/KMSP/2015/09/31/MonthlyHistory.html?format=1" | grep -v Precip | cut -d "," -f 20I'd argue that many, if not all of the issues with v6 back in 2002 have been resolved, and that v6 adoption is accelerating, both on eyeball networks as well as on public-facing internet services.
Beyond that, pretty much every router out there supports IPsec, so if you're needing to integrate with other non-pfsense hardware, IPSec is often your only option.
One of the main selling points for ZFS is the end-to-end cryptographic verification of file contents as well as all metadata. Everything in ZFS is hashed, and verified during reads. Without ECC RAM, your hashes are vulnerable to corruption due to bits being erroneously flipped in RAM. If this happens with non-ECC RAM, you're never going to know, and it will cause corruption. With ECC RAM, these events are not only detectable, but also fixable.
Regarding ZFS "requiring a huge amount of RAM". Most of this comes into play if you have dedup turned on. Then you really need a lot of RAM. Without dedup enabled, and if you're OK with mediocre performance, you can get by just fine with a "normal" amount of RAM. It's well-known that filesystem performance increases with more RAM - this is not something that is unique to ZFS.