I’ll add some color to this post.

The original FTP is, frankly, a monster of a protocol. Very useful, but an anomalous protocol that even without NAT breaking the end-to-end principle, it is unlikely to have survived modern corporate firewall rulesets in any case. The fact that FTP was even ported for TCP is its own historical quirk.

BTW, that is the term which this post is missing: the end-to-end principle is the design philosophy that the network itself should not have to perform work on payloads transmitted, except to carry it towards the destination. This also implies that no fields or bits should be modified in transit, once it leaves the sender; encap/decap restores the fields so that the receiver is none the wiser.

NAT breaks end-to-end in two respects: corruption of the original sender, and corruption of L4 port numbers. Note that Legacy IP also violated end-to-end, when packets are fragmented due to MTU issues. With IPv6, fragmentation by the network is disallowed outright, and the technical case for NAT is non-existent.

There’s something to be said about adopters of NAT, that they were facing a Hobson’s choice: use NAT so that they could connect early dial-up users to the emerging Internet, or reinvent the 20 year experiment of the Internet so that it could scale properly. In 1995, IPv6 did not exist so they made the only real choice available.

In the year 2026 though, that argument doesn’t hold water: it is a choice to continue to ignore the dual-stack and IPv6-only internet. There’s a quote that all sufficiently complex technical problems are in-fact political, and this is that: the modern case for Legacy IP and NAT is rooted in inertia, resource scarcity (eg hyperscale cloud companies buying up IP subnets), and recalcitrance by professionals that abdicate their responsibility to their clients to pursue the available technology.

There is no colorable technical rationale for why IPv6 best practices cannot be adopted today for most organizations, when all network hardware, all major consumer and enterprise OS’s, and all mobile phones support v6. Note that I said “best practices”, because a minority of orgs such as certain American ISPs have undertaken truly bonkers decisions that are putting us on track for the very same sins as Legacy IP.

The fact that some ISPs assign nothing but a single /128 via DHCP6 is absurd: this malpractice perpetuates the same problem as NAT44, except that there’s no good excuse for it. Even the most delusional of ISPs will never run out of /128 addresses in their assigned /32. Per best practice, even handing out /48’s to customers is not a problem either, because that’s 65536 customers and if that’s really a problem, just ask the RIR for another /32, which they can do as RIR dues-paying members. There is no practical limit, except that some people just cannot math properly to see that there’s no practical limit. When a technical solution to a technical problem fails because of innumeracy by those tasked with implementing it, then that’s so much worse than any 1990s workaround.

I’ve harped a lot about IPv6 because its strength today is that it’s technically competent, future-proofed, and most importantly, practitioners that saw the first travesty of NAT will not allow a redux to play out with IPv6. The technical reasons to deploy NAT66 are non-existent: it is always a workaround for political issues.

I can (just barely) accept NPTv6 as a like subnet-for-subnet mapping that does not harm L4, but that’s still glossing over a political issue. IPv6 gave network engineers real choices in numbers and administering their networks, and while some will squander it, I will be encouraging people to not let that happen.

Was AI used to generate part or all of this tool?

Is there a link somewhere? Maybe my reader isn’t showing the link?

This looks amazing. That said, you may want to have a look at rules 7 and 8 for this community.

Is that something you’re looking for? As a practical matter, the effort to maintain multiple release branches and backports – compared to the norm of just maintaining a single main branch – is an outsized effort, available to only well-funded FOSS projects, usually by having an industry sponsor that makes it a priority.

I posit that the grand majority of selfhosted FOSS software, by project count, do not have back ported branches. And so production environments will want to set up an offline validation setup to evaluate update, prior to making the switch. Not convenient, sure, but not exactly insurmountable either.

At some point, some amount of responsibility for use of FOSS software must fall upon the users, or else the project is less about creating value by building up the commons for software, and more on the exploitation/abuse of the volunteers.

Downside: breaking changes are fairly common AFAIK.

By my extremely cursory reading, this stopped being a problem after the v2.0.0 release, when they adopted semantic versioning. According, breaking changes would only occur when the major version number is rolled. And version v3.0.0 was just released 5 days ago, whereas v2.0.0 was released in October 2025.

It may be down to taste, but I view 9 months as being acceptable, given the breadth of features offered and the folks willing to put effort into the project.

some ominous comments stating that it is practically unmaintained (which is not true)

Objectively, I can see that the last commit to the default branch was in March 2026, and that the 10th newest commit was back in September 2025. Of these 10, 3 are new features and 6 are fixes and 1 is documentation. I also see in the issue tracker that no project developer replied to the two newest reports, which were reported 2 weeks and 2 months ago.

As a subjective opinion, the explanation that Conduit is essentially rock-solid and this doesn’t need much upkeep or commits, that is just not credible. The Git history shows fixes and new features, but at a rate that averages just one commit per month. And some of those commits are literally one-line changes.

But let’s suppose that the maintainers are uninterested in small UI or quality-of-life features, and only make changes when it crosses their threshold for what is “important” enough. That’s a choice, sure, but let’s see if that holds water. Here is the project’s response to an issue opened in January, with the response being in February that confirms a logic bug and schedules it for the next release.

That was three months ago. No updates. No mentioned branches or PRs or merges. All while this bug remains in place. And that’s understandable for FOSS project developers, for whom the project is not their day job.

But in any circumstances, the totality of the evidence does not inspire confidence, let alone a determination that Conduit is “rock solid”. And that’s even before looking at the code.

TL;DR: the premise of the question is wrong. Conduit is not maintained.

This is the homeserver written in Rust, right?

A suggestion: wherever a QR code is included, the human-readable content should be included next to it. Not everyone has a QR code reader handy, or their reader has the bad habit of immediately opening links or apps. In this case, I see that it just goes to https://continuwuity.org/ and is benign, but others may be apprehensive at naked QR codes.

(there’s obviously an exception for QR codes that are intended to convey machine info, like TOTP codes)

There are subscription costs for homelabbing?

Glad to see this! And thanks for getting back to me.

Btw, is there a presence for the project on Mastodon? I’d like to follow along on new stuff in this space. Or even an RSS feed that can be pulled by a bot on Mastodon?

Hi! Firstly, thank you for using /dev/urandom as the proper source for random bytes.

Regarding the static H1-H4 issue, does your repo have any sort of unit tests that can verify the expected behavior? I’m aware that testing isn’t exactly the most pressing thing when it comes to trying to overcome ISP- and national-level blocking. But at the same token, those very users may be relying on this software to keep a narrow security profile.

To be abundantly clear, I’m very glad that this exists, that it doesn’t reinvent the WireGuard wheel, and that you’re actively fixing bug reports that come in. What I’m asking is whether there are procedural safeguards to proactively catch this class of issues in advance before it shows up in the field? Or if any are planned for the future.

Ok, I’m curious as to the DPI claims. Fortunately, AmneziaWG describes how it differs from WG here: https://docs.amnezia.org/documentation/amnezia-wg/

In brief, the packet format of conventional WireGuard is retained but randomized shifts and decoy data is added, to avail the packets with the appearance of either an unknown protocol or of well-established chatty protocols (eg QUIC, SIP). That is indeed clever, and their claims seem to be narrow and accurate: for a rule-based DPI system, no general rule can be written to target a protocol that shape-shifts its headers like this.

However, it remains possible that an advanced form of statistical analysis or MiTM-based inspection can discover the likely presence of Amnezia-obfuscated WireGuard packets, even if still undecryptable. This stems from the fact that the obfuscation is still bounded to certain limits, such as adding no more than 64 Bytes to plain WireGuard init packets. That said, to do so would require some large timescales to gather statistically-meaningful data, and is not the sort of thing which a larger ISP can implement at scale. Instead, this type of vulnerability would be against particularized targets, to determine if covert communications is happening, rather than decrypting the contents of said communication.

For the sysadmins following along, the threat of data exfiltration is addressed as normal: prohibit unknown outbound ports or suspicious outbound destinations. You are filtering outbound traffic, right?

without always accounting for development speed, cross-platform consistency, ecosystem maturity, plugin/runtime complexity, UI flexibility, and the fact that some apps are doing much more than others

From the perspective of a user, why would they care about development speed? A user, by sheer definition of wanting to use the software, can only use software that is already developed. If it’s not actually developed yet… they can’t use it. So either they see the software at the end of the development cycle, or they never see it at all. Development speed simply isn’t relevant to a user at that point. (exception: video games, but I’m not aware of any desktop game developed using a web framework)

As for platform consistency, again, why would the user care? Unless each user is actually running the same software on multiple platforms (ie a Windows user at work, Arch at home, and BSD at their side-gig), this is a hard sell to get users to care. A single-platform user might never see what the same software looks like on any other platform. Even mobile apps necessarily differ in ways that matter, so consistency is already gone there.

What I’m getting at is that the concerns of developers will not always be equally concerning to users. For users to care would be to concern themselves with things outside of their control; why would they do that?

Was this question also posted a few weeks ago?

In any case, what exactly are the requirements here? You mentioned encrypted journaling app, but also gave an example of burning a handwritten sheet. Do you need to recover the text after it is written, or can it simply be discarded into the void once it’s been fully written out?

If encryption is to protect the document while it’s still a draft, then obviously that won’t work for handwritten pages.

I’ve even seen people vibe code ethernet drivers for freeBSD.

Please make sure to read what considerations that developer had before undertaking that effort using an LLM: https://github.com/Aquantia/aqtion-freebsd/issues/32#issuecomment-3997341698

Specifically, they (the human) were kept in the loop for the entire process, which included referencing the working Linux driver to do a clean-room reimplementation. This already means they have some experience with software engineering to spot any issues in the specifications that the LLM might generate.

Also, Aquantia (before the merger) already had a published FreeBSD driver but it hasn’t been updated. So this port wouldn’t have to start from zero, but would be a matter of addition support for new NICs that have been released since, but Aquatia hadn’t updated the driver.

This is very much not an example of an Ethernet NIC driver being “vibe coded” from scratch, but a seasoned engineer porting Linux support over to FreeBSD, a kernel that already has a lot of support for easily adding new drivers in a fairly safe manner, and then undertaking a test plan to make sure the changes wouldn’t be abject slop. That’s someone using their tools with reasonable care. In the industry, this is called engineering.

Admiration for what people can do with the right tools must always be put into the right context. Even with the finest tools, it’s likely that neither you nor I could build a cathedral.

I second the option of Git + SSH. That will scale to one hundred repos. And if you don’t want the repos to be checked out, use “git clone -n” to not do that. It’ll just be dozens of repos which only have the minimal .git/ directory. All other repos that specify this one as the upstream will have no issues pulling or pushing code.

You won’t have PR features nor a web UI though.

Did ATT specifically say that their modem will factory resets due to loss of power? Because that’s genuinely unbelievable as a design feature for domestic-grade equipment. More reasonable would be that the modem will reboot when it encounters a brown-out condition, where the AC voltage briefly dips too low for the circuitry to continue operating.

A power strip with just an MOV circuit would only help if the problem was a brief spike in voltage. A power conditioner would only help if it’s the shape of the AC voltage that needs to be cleaned up. That is to say, no dips or spikes, but rather the sinusoidal shape is messy due to other devices in the building.

A UPS (which almost always includes an MOV circuit and power conditioner) would switch to battery power whenever there’s a problem with the AC voltage, so any momentary issues will be addressed. This switchover tends to happen within 2 cycles of the 60 Hz AC frequency, and that’s generally good enough most home appliances. I’m guessing the modem has a switch-mode power supply, so even a cheap UPS with square/stepped wave output will work.

Firstly, I wish you the best of luck in your community’s journey away from Discord. This may be a good time to assess what your community needs from a new platform, since Discord targeted various use-cases that no single replacement platform can hope to replace in full. Instead, by identifying exactly what your group needs and doesn’t need, that will steer you in the right direction.

As for Element, bear in mind that their community and paid versions do not exactly target a hobbyist self-hosting clientele. Instead, Element is apparently geared more for enterprise on-premises deployment (like Slack, Atlassian JIRA, Asterisk PBX) and that’s probably why the community version is also based on Kubernetes. This doesn’t mean you can’t use it, but their assumptions about deployments are that you have an on-premises cloud.

Fortunately, there are other Matrix homeservers available, including one written in Rust that has both bare metal and Docker deployment instructions. Note that I’m not endorsing this implementation, but only know of it through this FOSDEM talk describing how they dealt with malicious actors.

As an aside, I have briefly considered Matrix before as a group communications platform, but was put off by their poor E2EE decisions, for both the main client implementation and in the protocol itself. Odd as it sounds, poor encryption is worse than no encryption, because of the false assurance it gives. If I did use Matrix, I would not enable E2EE because it doesn’t offer me many privacy guarantees, compared to say, Signal.

Are ham radio operators in the EU able to use LoRa radios and be exempt from duty cycle limitations?

Admittedly, I haven’t finished reflashing my formerly-Meshtastic LoRA radios with MeshCore yet, so I haven’t been able to play around with it yet. Although both mesh technologies are decent sized near me, I was swayed to MeshCore because I started looking into how the mesh algorithm works for both. No extra license, since MeshCore supports roughly the same hardware as Meshtastic.

And what I learned – esp from following the #meshtastic and #meshcore hashtags on Mastodon – is that Meshtastic has some awful flooding behavior to send messages. Having worked in computer networks, this is a recipe for limiting the max size and performance of the mesh. Whereas MeshCore has a more sensible routing protocol for passing messages along.

My opinion is that mesh networking’s most important use-case should be reliability, since when everything else (eg fibre, cellular, landlines) stops working, people should be able to self organize and build a working communications system. This includes scenarios where people are sparsely spaced (eg hurricane disaster with people on rooftops awaiting rescue) but also extremely dense scenarios (eg a protest where the authorities intentionally shut off phone towers, or a Taylor Swift concert where data networks are completely congested). Meshtastic’s flooding would struggle in the latter scenario, to send a distress message away from the immediate vicinity. Whereas MeshCore would at least try to intelligently route through nodes that didn’t already receive the initial message.