thamer
From the NYT version of this story:
> DoorDash said the median payment to be returned to workers amounts to around $48. > City officials said about 700 workers are owed more than $10,000 each; more than 27,000 workers are owed more than $1,000; and more than 4,000 workers are owed more than $5,000.
DoorDash also spent (from what I can tell) (1+1.4+1.8) million dollars to campaign against Mamdani.
Even back in 2012 this blog post showed the high cost of this operation: https://redis.io/blog/testing-fork-time-on-awsxen-infrastruc...
On an m2.xlarge using ~25GB of RAM, fork() took 5.67 seconds. That's a long pause when Redis clients typically experience single-digit msec latency for most operations. Yes, that's only the time needed to copy the page table. It's surprising they don't mention huge pages, it seems like it would be a key consideration here.
No doubt hardware is faster 14 years later, but Redis instances likely use more RAM too. It'd be interesting to see this benchmark revisited.
No, not necessarily.
I work on a large repo and new features often involve changes to 3 different services: 2 from the backend, and the frontend UI. Sending a single PR with changes to all 3 services is really not ideal: the total diff size in a feature I added recently was maybe 600+ lines, and the reviewers for frontend and backend changes are different people. The changes in the 2 backend services can be thought of as business logic on one side and interactions with external platforms on the other. The business logic can't work without integrating calls to external APIs, and the UI can't work without the business logic.
These days I open 3 separate PRs and the software only works once all 3 are merged and built. It would be great to have all of them as a single package that's still testable and reviewable as 3 distinct parts. The UI reviewer can check out the whole stacked PR and see it running locally with a functional backend, something that's not possible without a lot of manual work when we have 3 PRs.
The rule is simple: one app per space, and Ctrl+{1,2,3…} switches to the corresponding space in O(1). For me space 1 is an IDE + terminal, 2 browser, 3 messaging, 4 bug tracker, 5–6 AI agents etc. It was fast to learn: get a DM, press ^3; to file a bug, press ^4 etc. I use this with the Rectangle app for window tiling, and this combination works great for me; I rarely ever use Cmd+Tab.
I also have a personal menubar app that's very similar to SpaceName, to quickly get the current ID when multiple spaces have a similar layout (e.g. terminal takes the left half, a browser the right half).
The original applied to "8.1K" repositories, and now the partial retraction means they're only taking down one repo "and the 96 fork URLs individually listed in the original notice".
What was different about these?
You can think of an MCP server as a process exposing some tools. It runs on your machine communicating via stdin/stdout, or on a server over HTTP. It exposes a list of tools, each tool has a name and named+typed parameters, just like a list of functions in a program. When you "add" an MCP server to Claude Code or any other client, you simply tell this client app on your machine about this list of tools and it will include this list in its requests to the LLM alongside your prompt.
When the LLM receives your prompt and decides that one of the tools listed alongside would be helpful to answer you, it doesn't return a regular response to your client but a "tool call" message saying: "call <this tool> with <these parameters>". Your client does this, and sends back the tool call result to the LLM, which will take this into account to respond to your prompt.
That's pretty much all there is to it: LLMs can't connect to your email or your GitHub account or anything else; your local apps can. MCP is just a way for LLMs to ask clients to call tools and provide the response.
1. You: {message: "hey Claude, how many PRs are open on my GitHub repo foo/bar?", tools: [... github__pr_list(org:string, repo:string) -> [PullRequest], ...] } 2. Anthropic API: {tool_use: {id: 123, name: github__pr_list, input:{org: foo, repo: bar}}} 3. You: {tool_result: {id: 123, content: [list of PRs in JSON]} } 4. Anthropic API: {message: "I see 3 PRs in your repo foo/bar"}
that's it.
If you want to go deeper the MCP website[1] is relatively accessible, although you definitely don't need to know all the details of the protocol to use MCP. If all you need is to use MCP servers and not blow up your context with a massive list of tools that are included with each prompt, I don't think you need to know much more than what I described above.
The two are kind of similar if I remember correctly, and both offer a lot of config options to change the style and more. I mostly use it for diffs involving long lines since it highlights changes within a line, which makes it easier to spot such edits.
I have an alias set in `~/.gitconfig` to pipe the output of `git diff` (with options) to `diff-so-fancy` with `git diffs`:
diffs = "!f() { git diff $@ | diff-so-fancy; }; f"
[1] https://github.com/so-fancy/diff-so-fancyIt doesn't look like the orange and blue colors are part of the theme definitions, so the rendering library may be using some default values. This is why they are rendered in the same color on images using different theme files.
The associated paper[2] goes into a lot more detail, and includes interactive features that help illustrate how the model "thinks" ahead of time.
[1] https://www.anthropic.com/research/tracing-thoughts-language...
[2] https://transformer-circuits.pub/2025/attribution-graphs/bio...
Yes: the main reason is that I control which applications are configured with the command/args/environment to run the MCP server, instead of exposing a service on my localhost that any process on my computer can connect to (or worse, on my network if it listens on all interfaces).
I mostly run MCP servers that I've written, but otherwise most of the third party ones I use are related to software development and AI providers (e.g. context7, Replicate, ElevenLabs…). The last two costs me money when their tools are invoked, so I'm not about to expose them on a port given that auth doesn't happen at the protocol level.
There's also this new effort by Anthropic to provide a packaging system for MCP servers, called MCPB or MCP Bundles[1]. A bundle is a zip file with a manifest inside it, a bit like how Chrome extensions are structured (maybe VSCode extensions too?).
Is this something you're looking to integrate with? I can't say I have seen any MCPB files anywhere just yet, but with a focus on simple installs and given that Anthropic introduced MCP in the first place, I wouldn't be surprised if this new format also got some traction. These archives could contain a lot more data than the small amount you're currently encoding in the URL though[2].
[1] https://www.npmjs.com/package/@anthropic-ai/mcpb
[2] https://github.com/anthropics/mcpb/blob/main/README.md#direc...
From the Wallet app, tap on "…" at the top right, then "notifications".
On both iOS and modern Android I believe you can access them with a long press on hyphen.
There was also a very prominent issue where the voices would be sped up if the text was over a few sentences long; the longer the text, the faster it was spoken. One suggestion was to split the conversation into chunks with only one or two "turns" per speaker, but then you'd hear two voices then two more, then two more… with no way to configure any of it.
Dia looked cool on the surface when it was released, but it was only a demo for now and not at all usable for any real use case, even for a personal app. I'm sure they'll get to these issues eventually, but most comments I've seen so far recommending it are from people who have not actually used it or they would know of these major limitations.
ytd-rich-grid-renderer div#contents {
/* number of video thumbnails per row */
--ytd-rich-grid-items-per-row: 5 !important;
/* number of Shorts per row in its dedicated section */
--ytd-rich-grid-slim-items-per-row: 6 !important;
}
I first tried it with the "User JavaScript and CSS" extension, but somehow it didn't seem able to inject CSS on YouTube. Even a simple `html { border: 5px solid red; }` would not show anything, while I could see it being applied immediately with the "Denis" CSS extension.If someone can recommend a better alternative for custom CSS, I'd be interested to hear it. I guess Tampermonkey could work, if you have that.
[1] https://chromewebstore.google.com/detail/custom-css-by-denis...
As you wrote these aren't made for desktop apps, but you can use desktop apps to help with UI development using these libraries.
For LVGL there's SquareLine Studio[2], I used it a few years ago and it was helpful. For TouchGFX there's TouchGFXDesigner[3], I haven't used it myself and it seems to run only on Windows.
[2] https://www.st.com/en/development-tools/touchgfxdesigner.htm...
See for examples ILI9341 or SSD1306 displays[1] or integrated boards with (often) an ESP32 microcontroller and a display attached[2].
[1] displays: https://www.google.com/search?q=SSD1306+OR+ILI9341+display&u...
[2] integrated: https://www.aliexpress.us/w/wholesale-ESP32-LVGL.html?spm=a2...
That said, the "gibberlink" demo is definitely much slower than even a 28.8k modem (that's kilobit). It sounds cool because we can't understand it and it seems kinda fast, but this is a terribly inefficient way for machines to communicate. It's hard to say how fast they're exchanging data from just listening, but it can't be much more than ~100 bits/sec if I had to guess.
Even in the audible range you could absolutely go hundreds of times faster, but it's much easier to train an LLM that has some audio input capabilities if you keep this low rate and likely very distinct symbols, rather than implementing a proper modem.
But why even have to use a modem though? Limiting communication to audio-only is a severe restriction. When AIs are going to "call" other AIs, they will use APIs… not ancient phone lines.
Time is in seconds, length in meters, temperature in kelvin, etc. A unit of energy like a joule is then defined using these base units, so 1 joule is 1⋅kg⋅m^2⋅s^-2.
Good job, the new red is a huge improvement.
Meanwhile the YouTube comment sections are still getting pummeled by bots, trying to scam viewers with fake crypto offerings (90%+ involving an "Elon Musk giveaway") or writing entire threads praising the great investment returns from a genius trader named "Mr Definitely A. RealName" who operates only on WhatsApp.
Take a look at the comments under this video for example, all the references to AMZ6OP are for a scam crypto token that they pretend is being launched by Amazon: https://www.youtube.com/watch?v=JRd_wNHJG4o.
I'm having doubts even reposting this link… please do not believe for a second that any of these claims are real.
I guess changing red to red-ish magenta was apparently more important than addressing the widespread issues that have been plaguing YouTube for years.
I started with:
sqrt(1-((1/(1+120 PeV / (neutrino mass * c^2)))^2))
but it simply said "data not available". So I changed: 120 PeV to 120e15 * 1.602176634e-19 kg m^2 s^-2
neutrino mass to 1.25e-37kg
speed of light to 299792458 m/s
and finally it gave a numeric result: 0.999999999999999999999999999999999999829277971
(that's 36 nines in a row). Pasting it in Google says the value is "1", which is… not far off.If you want details about the way this is calculated, I dug up the formula from an article I'd written about particle velocities in the LHC, back in 2008[2]. For comparison, their 7 TeV protons were going at 0.999999991 × c.
[1] https://www.wolframalpha.com/input?i=sqrt%281-%28%281%2F%281...
[2] https://log.kv.io/post/2008/09/12/lhc-how-fast-do-these-prot...
The cost of living is different, larger companies in major population centers have more capital, etc.
I found its modern "style" pleasant to write code for, and easy to integrate with good docs. That said, I did notice the large number of algorithms as others have pointed out, and I'm not sure I'd use it for more serious purposes when libsodium is well-established. It certainly wouldn't be an obvious choice.
But to quickly add support for common hash algorithms in a small project, I thought it was a good option and enjoyed its API design and simplicity.
>>> round((4406400000 - 2**32)/(1000 * 3600), 3)
30.954If you don't know how precise GPS receivers can get with dead reckoning techniques, this demo of someone "drawing" onto a map of their driveway using a GPS receiver is very impressive: https://youtu.be/3tQjIHFcJVg?t=245
It looks like they're getting measurements that are only a few inches away of the module's real position, although of course the conditions seem favorable with an unobstructed sky and consistent alignment.
The module they use is a ZED-F9P by u-blox. I've used ~$50 u-blox GPS modules in DIY electronic projects before since they're often the brand you'll get when buying GPS modules, but this particular type with dead reckoning is much more expensive. Sparkfun has it for $275 for example: https://www.sparkfun.com/products/16481.
For an example, see this StackOverflow question and its detailed answers for an overview of what obfuscation techniques can be used, although many more exist of course: https://stackoverflow.com/questions/15393441/obfuscated-c-co...
I was able to compile it on macOS, but had to include an extra flag to stop clang from being too strict (version 16):
cc -Wno-implicit-function-declaration -std=c89 -o test test.c
./test