trout
Joined 16 years ago
Joined 16 years ago
"The IP addresses that you register must be from the subnets of the VPC for the target group, the RFC 1918 range (10.0.0.0/8, 172.16.0.0/12, and 192.168.0.0/16), and the RFC 6598 range (100.64.0.0/10). You cannot register publicly routable IP addresses."
[1] https://docs.aws.amazon.com/elasticloadbalancing/latest/netw...
AWS definitely cares about any bad experiences. It's the way we improve things for customers, so let us (or me, or anyone at AWS) know the details.
You can see the different sorts of competencies here, in case your solution has a specific vertical or technology focus: https://aws.amazon.com/partners/competencies/
You would want to focus on the consulting partners for this type of engagement.
If you're not sure, it sounds like it's more of a migration use case and you can get a short list of folks here: https://aws.amazon.com/migration/partner-solutions/
If you know your AWS account team, they'd like to get that feedback. Otherwise my contact information is in my profile and you can email me and I can try to connect you to some AWS folks responsible for the partner as well.
Basically integrating OVS APIs into Docker so it could use more mature networking code as well as VXLAN forwarding. VXLAN is basically IP encapsulation (a 16-bit ID) that the networking industry has standardized on. It more or less allows for L2 over L3 links. I like to think of it as the next Spanning Tree.
So the unwieldy part is the weight OVS brings as well as the VXLAN encapsulation in software - both of which have momentum towards being more lightweight.
Sales Engineers in particular don't want to sell something dishonestly - it opens the company up to risk and it hurts their credibility, particularly if you sell multiple products.
There are a few reasons I can think of:
1. The technical people that run the current implementation didn't put their requirements into the sales process.
2. Some of those features really don't matter to the business and were fodder.
3. The requirements were listed, but not accurately or with enough depth.
4. The Sales team didn't have enough knowledge (or training) to know the difference - or inaccurate documentation.
5. It was roadmapped close enough to implementation and including delays to go ahead anyway.
6. The competitor claims to have this feature but theirs is broken also, so it's a race to who can sell broken stuff faster - because nobody can truly do it.
The people and the companies that support this exist certainly - just not for very long.
1. In theory the routing table with IPv6 can be smaller. The address design should be hierarchical, which means you should be able to have much fewer routes. It's too early to tell if this is actually true or not, but the addresses themselves are 4x larger - which isn't going to be the determining factor in routing table size.
2. Not everything needs to be publically routable, true. IPv6 has the idea of link local and autonomous system local addressing which IPv4 doesn't have. The RFC 1918 block was used instead. But think for a second - there's only 4 billion addresses (less when you count bogons and multicast ranges), and it's only a matter of time until those are taken up. So we can choose to do it now, 2 years from now, or 5 years from now, but devices are growing faster than ever and it's only a function of time.
3. NAT is not a security feature, is not good for the internet, and the sunk costs spent building an ALG for every protocol to work around it is a significant development sinkhole. It's a workaround often masqueraded as security, and does cause many application problems. It's just not normally the application developers that have to fix those problems - it's the network and security teams.
4. IPv6 was created in the late 90's. People have been waiting for brilliance to supercede IPv6 for a while. I'll admit it's not the easiest, but there are a certain set of problems you have when you expand the address space.
5. I'm familiar with all the IPv4 headers, and nearly all of them are used. ID is used for packet identification, particularly through network services, DSCP is used heavily, DF and other flags are used - they're just obscure. If you look at IPv6 those same headers are basically recreated, though with slightly different names. The ones that aren't included are addressable through the extension headers.
So, yeah. That's another perspective that may help you understand why IPv6 is a bit of a quagmire. The faster people understand this, the sooner we get to a place where the chicken-egg problem fades away.
The potaroo site by Geoff Huston has been running for over a decade tracking address consumption.
Some history for ARIN consumption predictions: Feb 2014 predicts Mar 2015.
Oct 2013 predicts Jan 2015 [0].
Apr 2013 predicts Apr 2014 [1].
Nov 2012 predicts Sept 2013 [2].
Sep 2012 - RIPE out of addresses.
Apr 2011 - APNIC out of addresses.
Feb 2011 - IANA out of addresses.
Dec 2011 predicts July 2013 [3].
July 2011 predicts Nov 2013 [4].
Prior to this it's simply about IANA calculations, though with some algebra some dates could be extracted.
As well, here's a Cisco article from 2005 describing some of the painful parts of trying to predict the address consumption (where they guess 2016 in 2005): http://www.cisco.com/web/about/ac123/ac147/archived_issues/i...
[0] http://web.archive.org/web/20111227105916/http://www.potaroo... [1] http://web.archive.org/web/20111227105916/http://www.potaroo... [2] http://web.archive.org/web/20121122120407/http://www.potaroo... [3] http://web.archive.org/web/20111227105916/http://www.potaroo... [4] http://web.archive.org/web/20110709090704/http://www.potaroo...
Check out the discussion - it took a while to find a solution to the last 3.
I would echo many of the same things. I graduated with a computer science degree (and computer systems engineering) but up until about a year ago I had not written a single program. I've started kicking around with Python again, have signed up for Coursera courses that involve Github, AWS, and programming. As well, it's helping me professionally because I'm gradually moving away from VoIP technologies into datacenter networking where Dev Ops, AWS, IaaS, and the latest programming trends are important. I got an Arduino and started hacking around with it as well.
Even though I'm not at a startup, I try to treat my job with the same type of entrepreneurial spirit as those touted in the Silicon Valley Startup Echo Chamber posts. I try to keep in mind many of the core entrepreneurial concepts - fail fast, iterate, A/B test, get feedback, focus on value, user experience is paramount, etc in mind with my comparatively tame 'cushy' corporate job.
So as much as anything else, thanks HN.
In the homework, this is what they mention the goal of the 'bitstarter' page to be: "Choose a project which you can get to a crowdfunder
People in the class have widely varying backgrounds, ranging from relative neophytes to fairly advanced students. Your goal is to figure out a final project that you can get to the level of a reasonable crowdfunding site. This can mean anything from verbal description and mockups to fully working code, or anything in between: whatever is necessary to make the sale and prove that you have a market. Note that you have control over who's seeing the crowdfunder (e.g. the people in your email list or social circle), so you are also determining the difficulty of the sale itself by choosing the market and the initial crowdfunding audience. Note also that you can just ask for someone to share your content on social media rather than pay you real money for a preorder. Open source projects are ok as well, not just for-profit businesses. The main guideline is to set your success bar at the point that it'll be an achievable challenge for you. That might be a target of $100 or it might be $100,000."
You can see the other projects here: http://startupmooc.org/
It's probably also not a coincidence that Skype and Bittorrent are two of the hardest protocols to 'control' inside the network. This sounds good from a 'the internet should be a free democracy' standpoint but bad from a 'let's guarantee the performance of the application' standpoint. In terms of visibility into what is happening, being transferred, and where connections terminate there are more productive rather than draconian reasons for understanding those things.
Today with virtual hosting if the website next to you decides to host illegal content, the entire IP is taken down collateral damages or not. Well, that's part of your choice in choosing a provider as an end host. If the entire next generation internet and application space is based on overlays and other nebulous architectures, much of those same problems are going to exist to larger scales, including at transit points. Except it won't be as optional as changing hosting providers.
Since you've got BGP experience - think about the fun in troubleshooting eBGP neighbor problems when every connection is a GRE tunnel that may actually be tunneling through another BGP AS, which itself may be tunneled again. GRE tunnels are great immediate bandaids and generally awful long term solutions for enterprise networks to say the least. But the application guy gets his green light and thinks everything is great.
Email is matt.h nick @ [gmail.com]