Opus 5 ran on an before type of the scaffold, in a sole continue served through OpenRouter fairly than five on a pinned backend.

Abstract. Frontier coding achievement is typically bought alongside larger proprietary models at elevated cost. We current ledger-based zero-shot self-orchestration, a training-free method in which caller instances of one example decompose problems and coordinate through a shared filesystem holding a plan, notes and current solution. Across eleven open and closed-weight models on the 100 latest difficult LiveCodeBench problems, the method yields gains of up to 25.6 percent points on pinned backends and offers two routes to frontier-level accuracy. Orchestrated Qwen3.8 Flash Next reaches 93.0% pass@1 against Fable 5's 90.4% at 9% of the cost, and locally served, open-weight Qwen3.8-27B rises from 66.8% to 92.4%. Gains are not universal: several models are unchanged or worse. Transcript inspection attributes the acquire to decomposition and persistent context. Inference-time institution can method frontier coding accuracy at a fraction of the cost, or slightly exceed it on self-hostable weights.

— the paper

Needs uv and an API key for the example you desire to test.

cd codebase/v2-current export OPENAI_API_KEY=... LCB_RELEASE=release_v6 \ ESCALATION_CLOUD_MAX_TOKENS=128000 \ ESCALATION_CLOUD_TIMEOUT=7200 \ MULTIAGENT_MODEL=openai:gpt-5.6-terra \ uv run --no-project --python 3.12 --with 'datasets<4' --with numpy --with anthropic \ python escalation/run_bench.py --engine multiagent --only lcb --lcb 100 --parallel 8

• --engine multiagent runs the manager; --engine sole is the one-call baseline.
• Other models: anthropic:<model>, dashscope:<model>, openrouter:<model>, all alongside its own *_API_KEY.
• The pass@1 mark prints at the end. Results are written to runs/results.json, workspaces to runs/ws/.

Code is under the MIT License. The paper, figures and run data are under CC BY 4.0. The LiveCodeBench fork, the benchmark issue statements and the LaTeX template records keep their own licenses. See NOTICE.md for which licence covers which path.

Netflix reportedly offered Microsoft $500 myriad for a seven twelvemonth agreement that would authorize the streaming elephantine to modify shows and films concerning Xbox characters.

Puck bankrupt the news, indicating that Microsoft responded alongside an recommendation for $800 myriad – as a result, the agreement has reportedly fallen through.

In a declaration to Puck, Xbox said, “We have received record-breaking involvement in our I.P.; Netflix is a appreciated partner and we are enthusiastic for the forthcoming publish of our Minecraft and Diablo animated sequence together, among another adaptations.”

Microsoft is now stated to be in pursit of “smaller deals alongside additional partners,” doing things on a case-by-case basis fairly than an overarching exclusivity deal.

Microsoft earlier partnered alongside Paramount to create the live-action “Halo” series, which ran for two seasons. They currently have a “Call of Duty” movie in the plant at Paramount, a third period of “Fallout” at Amazon and a sequel to “A Minecraft Movie” beginning next year.

Titles akin “Gears of War,” “The Elder Scrolls” and “Sea of Thieves” are additionally being thrown for imaginable adaptations.

Netflix has assorted plant according to games coming out, including the animated “Cyberpunk: Edgerunners” which returned this week.

The messages, reported by a Brazilian daily, say the phase recommended Bolsonaro’s overview and his WhatsApp channel.

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Alex Gibney’s “Musk” movie is beautiful much gone.

Released October 9th to four theaters, it expanded to 472 final Friday.

And now, one week afterward it’s gone from nearly all theater in America.

You can motionless discover it in one or two odd places that didn’t get the memo. And equal it’s one showing a day at an odd time, akin 10am.

“Musk” was released by Bleecker Street Films, which was sold in the final week to ebay originator Pierre Omidyar — not considered a companion of Elon Musk, but a billionaire nevertheless.

And fair akin that, it’s gone.

Online, group started commenting before this week that shows they’d bought tickets for were cancelled without warning.

“Musk” — which has nearly ideal scores on Rotten Tomatoes and Fandango — is a entirely unvarnished three hr appearance at the existence of Elon Musk. It covers his entire life, including all endeavor dealings and interviews alongside his 14 children’s mothers.

CLICK HERE FOR MORE NEWS

No one has one fine item to say concerning the Tesla owner. “Musk” is additional of a fear movie that item alternatively out there.

Generally movies have 28 day runs in theaters. But one or or two weeks and afterward oblivion is an bonzer rotate of events.

In New York, for example, anywhere “Musk” had an audience, the movie is now playing fair at the Angelika in Soho, formerly a day in the morning.

A catalog of theaters from Bleecker, which you can see below, shows that all 472 were listed as playing the movie today. But no more.

Earlier in the week, Tik Tok was accused to canceling the “Musk” ad page, but afterward was stated to have restored it. The trailer is motionless playing on YouTube. For now. 

Entry 001 - Why gopher in 2026? May 22nd 2026 First off, if you're study this, you're likely the benevolent of individual who can't just use a tool, you have to cognize how it works. There are astute group who are good at what they do. Some group are expert chefs, notable mechanics, great sculptors or skillful accountants. But how many of those group dive so deep into what they are fine at to comprehend what makes it tick? People akin us are the ones who build a phlog for fun fair to get a emotion for how far we've arrive alongside technology. Maybe you're current for the nostalgia, maybe it's to rotate off the noise of contemporary tech. The crucial part is you are here now, in 2026 or beyond. I'm noticing a trend alongside my 17 twelvemonth old and their allies alongside ADHD anywhere they want to rotate off the noise of the earth and go rear to simpler times. As one who is from those simpler times, I'm a small arrogant but additionally a small "Get off my lawn!" It's unattainable to go rear to that at this item and for improved or worse, we have to create awareness of anywhere we are. Flip phones are uncomplicated and low- tech to them, but for us they were the latest in tech! We have syntax highlighting in vim that wasn't there whenever I was using vi so many years ago. Now I not lone cognize it's there, but I can google how to set up so many features that I didn't cognize existed and would never fig out from the manual. Back in the day you had to discover person who archetypal off knew what you were equal talking concerning and second who knew additional than you did. For me, this was how I ended up knowing a small concerning a lot but not being capable to wrestle the arcane cognition from the man pages. I think tech is in a weird location that is the two excellent helpful and yet so unhelpful at the identical time. Subscriptions for everything, services changing all the period and profits driving the direction of everything. It's nice to find a location akin sdf that operates akin how things used to. Thanks for stopping by! Wayne =============================================================================== (Comment remaining whenever I was using germ 0.4.0) 2026 May 24, 10:29 I awareness you, on one hand we cant go back, on the other, we have to go back. Im not certain anywhere that leaves us. All I cognize is that I (myself) need to dilatory down. - y4my4m

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Small programs are interesting. But I’m additionally curious in small programming languages.

Generally speaking, the smaller the language, the small expressive it is.

One of the most well-known, smallest expressive languages is assembly.

Assembly languages are very syntactically and conceptually simple. There’s not much tongue at all: it’s mostly a rigid sequence of opcode mnemonics. Even alongside macros, penning in gathering is mostly concerning understanding the puzzle of a particular CPU’s education set architecture, or ISA. (You can demonstrate this by comparing the syntax of gathering for CISC and RISC processors. The puzzle is totally different, during the tongue remains practically unchanged.)

An honest citation must be made current for SNOBOL, which is kind of akin gathering tongue the two for the rigid syntactic reasons listed complete and also since it presents a akin authority stream challenge. Like a CPU, it only understands jumps and call/return. (In all another way, SNOBOL is wildly different, being a cord matching and replacing language. It’s weird and fun and extremely effective.)

Moving on to syntactically small "high-level" languages, these three are brilliant:

Forth, Lisp, and Tcl lone necessitate you to comprehend a few center ideas and give you limitless power in return. You could fit the syntactic center of these languages on an indicator cardstock or less.

And yet, to wield these tools efficiently requires a enormous change in thinking if you’re used to "normal" Algol-like procedural languages.

So how concerning item that is the two small and uncomplicated and doesn’t necessitate a blood sacrifice?

I think the Lua programming tongue fits the bill. Check out how small the core tongue is:

I’ve got the printed publish type of this document and it’s a lean book! The Lua tongue is covered in the commencement and it is fair 27 pages. 27 pages! I have equivalent manuals longer than that.

The C tongue is beautiful small. I don’t think it’s excellent uncomplicated to program effectively and safely alongside C, but there’s no denying it’s compact and pretty expressive for its size.

Newcomer Zig is C-like. But I think it’s really fairly ample and you need to know a lot of it to use it effectively. (I’m additionally a fan of Zig and think it’s totally value it. The size is there for a reason.)

JavaScript has a center tongue that is fairly small. Probably on par alongside Lua, actually. Functions, arrays, and objects (used as dictionaries) are beautiful much all the JS I use and I akin it that way!

As alongside the natural individual languages, the trade-off alongside a bigger programming language is, hopefully, greater expressivity.

Small or expressive. Which way should you lean?

In a fantastic conversation by David Ungar (wikipedia.org) titled Self and Self: Whys and Wherefores, he laments the mistake of Self’s multiple inheritance:

Got that? Here’s the projectile from the glide to assistance you remember:

I think small languages can also be fairly expressive, but lone alongside very, very careful design. Recall Forth, Lisp, and Tcl.

Microworlds: The idea of small, self-contained, learnable programming environments also has a David Ungar association I discovered during watching his talk. See "ARK" on my Microworlds card. (Smith and Ungar co-created the Self language (selflanguage.org), which is a notable milestone in programming and motionless under energetic development to this day.)

Languages which arrive alongside full-featured interactive IDEs are obvious potential microworlds.

But I additionally think that traditional content file-based programming can provision you the microworld cognition as well. For that, a tongue needs elevated quality documentation that installs alongside the compiler/interpreter. And it should strive to have error output that can be understood by beginners, including explanations of what went incorrect and hints for how to fix it or or anywhere to find more information.

Libraries: Another effortlessly overlooked aspect of a programming language’s apparent size is its "standard library" of functions, data structures, and methods.

I think function libraries are topic to the exact identical size versus expressiveness challenge.

For example, learning the Ramda (ramdajs.com) functional programming archive for JavaScript was extremely much akin learning a new programming tongue and I never managed to study all of it. The composability of Ramda and the consistency of its curried functions was extremely eye-opening to me. My advice: A small bit of Ramda goes a lengthy way!

The feels: Concision in our tools has a certain norm that goes beyond utility. Little things fair spark joy, you know?

Why are small things so delightful?

A big-budget movie can be clever and amazing. But I think that requires the style and restraint of the director. Otherwise, you can fair create the archetypal thing that comes to your intellect - which is likely going to be the most obvious thing to arrive to your (and your audience’s) mind!

But a small-budget movie has to be clever to be any fine at all. If you’ve got $300 for props, you’re going to have to arrive up alongside item different…​and that can guide to surprise and delight since you did item unexpected alongside the material available.

Again, big prosperity material can be amazing and delightful, too, but I think that requires a ton of willful decision on the part of the artists involved. That’s power be why the prosperous ones can be beautiful forceful personalities. (Not that I think imaginative brilliant and being a nasty individual need to go hand-in-hand either. I’m not promoting that idea here. I don’t think that’s the same thing.)

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There is a bitcoin key hidden on this server value about $500.

It is accessible to the PHP person document through the print-flag binary.

This PHP type was selected from before the PHP2SHELL CVEs were released.

First individual to get the wallet wins. If you don’t need the money, regard donating it to those who do: givewell.org.

No tracking cookies. Signing in is optional; it sets one cookie, lone to keep you signed in. This leaf says two community files, archive.json and status.json, and Cloudflare Web Analytics counts visits without cookies. Everything we keep, why, and how to delete it is on the privacy page. Times are UTC (Zulu).

Our recordings and decodes are released under CC0 1.0 (public domain dedication); attribution appreciated: missileer.watch.

A memory-safe systems tongue alongside no heap allocator, garbage collector, or life annotations. In this repository's benchmarks, Goose runs faster than C++ and Rust during using small memory.

Tutorial · Reference · Specification · Packages · Samples · Benchmarks · Standard library

Goose has syntax acquainted to C and Rust programmers, but there is no heap. Every energetic value lives inline on a data stack managed by the compiler. Growth advances a pointer, and memory is freed whenever its range ends. The language's category and lifetime rules create this recollection example harmless to use.

Why Goose

• Faster than C++ and than harmless Rust, during memory safe. Over sixteen benchmarks Goose runs at 3.3x the speed of idiomatic C++, 1.16x hand-optimized C++ and 1.12x the finest harmless Rust, on 1.9x, 1.3x and 1.2x small recollection (results). These gains arrive from Goose's data layouts and recollection model.
• No allocator, no GC, no citation counting, no destructors. Memory is a fistful of data stacks that the compiler assigns statically. Freeing a million-element construction is one store, nevertheless deeply it nests.
• Growth preserves references. A citation into a growing gathering stays valid for as lengthy as the gathering does. You keep typed references anywhere C++ must reserve and harmless Rust uses u32 indices in the corresponding benchmarks.
• Memory harmless alongside zero annotations. No lifetime syntax, no aliasing or exclusivity rules, no unsafe. The compiler infers what all citation is established in and rejects references that could outlive their owners.
• Nested data stays inline. A string, an gathering of strings, a document alongside variable-size sectors and an gathering of those records are all one adjacent obstacle alongside no pointer in it. A record that is 160 bytes and an allocation in C++ is 29 bytes and none in Goose.
• Enums that disbursal what they hold. Variable-mode ADTs give all value its own variant's size fairly than the largest one's: 4x less recollection and 2x the speed of a Rust enum on the benchmark that exercises it.
• Links narrower than pointers. A related reference stores a typed, checked nexus as a 1, 2 or 4-byte offset. Structures built from them are stance independent, so your data construction is already its document format: preservation is a write, loading is a peruse affirmative a verification continue that rejects antagonistic bytes.
• Everything is built in place, guaranteed. A value is constructed at its final destination through any degree of calls. items.push(parse(line)) writes the parsed document straight into the array, and returning a growable gathering by value costs nothing.
• Returns throughout multiple calls. return err from burden returns from a function any figure of frames up, statically checked, alongside no unwinder, no Result type and no ? on all call.
• Threads that portion nothing. A employee is compiled as a distinct program alongside its own memory, and flat values cross typed queues as a memcpy. Data races, locks, atomics and memory orderings do not be in the language.
• Generics and higher-order functions alongside no overhead. An untyped indicator is generic. Function values are compile-time entities, so xs.filter() { it > 0 } compiles to the iteration it looks akin and builds its outcome direct into its destination.
• Plain C in, plain C out. Goose compiles to one C file, so it runs anywhere a C compiler does and calls C immediately through extern fn. The bundled TinyCC backend compiles and runs a program in-process, alongside no build step.

The tutorial walks through all of this by example, the reference covers the entire tongue topic by topic, the specification has the exact rules, and the benchmarks have the numbers, losses included.

Features

This division focuses on what distinguishes Goose. The tutorial explains these features in more detail, and the samples display them in thirty-one complete programs.

One memory model: stacks, and range exit is the free

A program has the native call stack, fixed data and N data stacks, where the compiler plant out N. A data stack is a ample address-space reservation alongside a bump pointer, and there is no another memory. At most one resizable value is live per stack and it is continually on top, so growth never moves item and never checks a capacity. All of this is proved at compile time; the runtime tracks lone the bump pointers.

for circular in 3 {  var scratch: u8[>..] = []; // grow-only: growth is a pointer bump  for i in 100000 { scratch.push((i % 256) as! u8); }  print("round ", round, ": ", scratch.len, " bytes"); } // the free: one shop to the stack top

Nothing moves, so references last growth

struct Item { id: i32, weight: f32 }  var items: Item[>..] = []; let archetypal .= items.push(Item { 1, 0.5 }); // a citation to component 0 for i: i32 in 2..1000001 { items.push(Item { i, 0.0 }); } first.weight = 99.5; // motionless valid, a myriad pushes later

push returns a citation to the new element, so a program can nexus elements during construction the array. A vector<T> or Vec<T> may reallocate and cannot provision this guarantee. Stable references document for several benchmark gains.

Safe references, no annotations

Every citation and piece has a fixed root: the variable that limits its target's lifetime. A citation must not outlive the variable that owns its mark or admission that mark through an incompatible type. The compiler infers roots and specializes functions for them, so no annotations are needed. There are no aliasing or exclusivity rules. When a life inspect fails, the error names the reference's base and its destination:

fn longest(a: u8[:], b: u8[:]) -> u8[:] { if a.len >= b.len { a } else { b } }  var outer: u8[>..] = []; var w = outer[..]; {  var inner: u8[>..] = [];  format(inner, "inner text");  w = longest(outer, inner); // error: storing a citation established at inner, } // which does not outlive the destination (§9.2)

A piece T[:] lets a function obtain a range from any array benevolent without copying its elements. For example, split returns slices into its input, and a dictionary keyed by u8[:] stores views of strings fairly than copies.

Nested data stays inline

There is no sole gathering type. There is a family that differs lone in what happens to the size, and all associate is [metadata][elements...], inline and packed, never a pointer to an component block:

Strings are fair u8 arrays: u8[>..] is a builder, u8[] a completed cord stored inline in whatever holds it, u8[..16] a small cord inner a struct, u8[:] a view. A struct may merge variable-size parts, and they sit inline in declaration order, so a document is a run of bytes with nothing indirect in it:

struct Item { sku: u8[varint], qty: varint, cents: varint } struct Order { id: varint, customer: u8[varint], items: Item[varint] }  var book: Order[>..] = []; book.push(Order { id: 1001, customer: "alice",  items: [Item { sku: "SKU-441", qty: 2, cents: 1999 },  Item { sku: "SKU-7", qty: 1, cents: 500 }] });

That command is 29 bytes and 0 allocations. As C++ std::string + std::vector<Item> it is 160 bytes and 1 allocation, and as Rust String + Vec<Item> 153 bytes and 4. A entire command publish is one array that streams through the cache. The cost is that an gathering of variable-size elements is sequential: you can iterate it but not index it (unless you keep a second gathering of references into it as an index).

Enums in two sizes

Algebraic data types are the lone energetic polymorphism: no inheritance, no vtables. Every ADT can be stored two ways, chosen at the point of use. Fixed manner (Shape) is a tag affirmative area for the largest payload, indexable and overwritable. Variable mode (Shape..) gives all value exactly its variant's size; the array becomes sequential and a value never changes variant, and in exchange you may obtain references into a payload:

enum Shape { Circle { r: f64 }, Rect { w: f64, h: f64 }, Dot }  var packed: Shape..[>..] = []; // 9, 17 and 1 bytes, not 17 each packed.push(Shape.Circle { r: 1.0 }); packed.push(Shape.Rect { w: 2.0, h: 3.0 }); packed.push(Shape.Dot); for s in packed {  match s { Rect &r => { r.w += 1.0; }, _ => {} } // edits the payload in place, inner the array }

Case functions provision another way to dispatch on a variant: define one overload per variant. Calls dispatch on the tag through a jump table, and the compiler checks that the overloads shield every variant:

fn area(s: Shape.Circle) -> f64 { 3.14159 * s.r * s.r } fn area(s: Shape.Rect) -> f64 { s.w * s.h } fn area(s: Shape.Dot) -> f64 { 0.0 }  for s in packed { print(s, " area ", area(s)); }

Links narrower than pointers

A T& is a device address: eight bytes, never dangling. A relative reference is the identical nexus stored as a narrow offset: T&<u32> is measured from the field itself to a mark in the identical array, so the construction is position independent, and T&<u32 in pool> from a named pool's base, so another arrays can nexus into the pool. T&<u32>? uses offset 0 as null. Here is a binary search tree in one grow-only array, alongside 12-byte nodes:

struct Node { key: i32, left: Node&<u32>?, right: Node&<u32>? } // 12 bytes, links included  fn insert(pool: Node[>..]&, key: i32) {  if pool.len == 0 { pool.push(Node { key: key }); return; }  var cur .= pool[0]; // .= binds a reference; = would copy the node  loop {  if key == cur.key { return; }  let next = if key < cur.key { cur.left } else { cur.right };  if next { cur .= next; continue; } // narrowed by `if`: next is a Node&  if key < cur.key { cur.left .= pool.push(Node { key: key }); }  else { cur.right .= pool.push(Node { key: key }); }  return;  } }

References are transparent (no *, no ->), .= binds or retargets one, and Node? is a nullable citation that if, guard and province narrow. The insert is one push and one store, and the shove cannot invalidate cur. When lifetimes are not nested, a reusable pond pairs a grow-only gathering alongside a hidden freelist: alloc_ref reuses a slot or pushes, liberated hands one back, and since nothing is ever really freed, a old slot says a different value of the correct type fairly than corrupting memory.

Your data is already a file format

var image: u8[>..] = tree.to_bytes(); // a framed byte depiction of the entire array var loaded, ok = from_bytes<Node[>..]>(image); // verified before it becomes a value image[image.len - 3] = 200; // tamper alongside a nexus ... var bad, bok = from_bytes<Node[>..]>(image); // ... and it is false and an bare array

The tree's links are self-relative, so it method the identical thing wherever it sits: preservation is penning its bytes and loading is reading them back, alongside no serializer, no schema and no pointer fixups. from_bytes checks the framing, all tag, all dimension and every nexus before the bytes rotate into a value, so a corrupt or antagonistic file is a false, never a untamed reference.

Built in place, always

The copy-free building justify (spec §4.3) says a constructed value is continually built in its final home, propagated top-down through calls. A function returning a grow-only array by value writes its elements direct into the caller's variable, or into a site of the document being built inner another array, so out-parameters mostly do not appear.

words.push(str("word", i)); // formatted direct into the new element let evens = xs.filter() { it % 2 == 0 }; // built direct into `evens`: no temporary book.push(Order { id: 1001, customer: "alice", items: parse_items("SKU-441:2:1999;SKU-7:1:500") });

Returning errors across calls

struct User { name: u8[..16], age: i32 }  fn load(text: u8[:]) -> User[>..], u8[] {  var users: User[>..] = [];  each_split(text, '\n') { users.push(parse_user(it)); };  return users, ""; }  fn parse_user(line: u8[:]) -> User { // returns a User: no Result, no error parameter  let comma = find(line, ",");  guard comma >= 0 else { return [], str("expected name,age: ", line) from load; }  let age, ok = parse_int(line[comma + 1..]);  guard ok else { return [], str("bad age: ", line) from load; }  let name = trim(line[..comma]);  return User { name: name, age: age as i32 }; }

return E from f returns E as the outcome of the innermost energetic call of f, nevertheless many frames up, and every function in between keeps its plain signature. It is checked statically, so all call of parse_user must lie inner a load call and nothing is uncaught at runtime. It is a hidden discriminant checked per example fairly than an unwinder, and the message is built immediately anywhere load's visitant wants it. The parsers in the samples use it for all syntax error.

Generics and function blocks

fn twice(x) { x + x } // an untyped indicator is a generic one  fn each_pair<T, F>(xs: T[:]) { // F is a function value: a compile-time entity  for i in 0..xs.len - 1 { F(xs[i], xs[i + 1]); } }  fn first_gap(xs: i64[:]) -> i64 {  each_pair(xs) { a, b => if b - a > 1 { return a; } }; // returns from first_gap, not each_pair  return -1; }  let evens = xs.filter() { it % 2 == 0 }; let total = fold(xs, 0) { acc, x => acc + x }; sort(xs) { a, b => a > b };

Everything is monomorphized. Type arguments are inferred from argument types; parameters absent from those types can be supplied explicitly. Function values are passed as generic parameters: all call is straightforward and inlinable, they cannot escape, and there are no closure objects or function pointers, so a higher-order function compiles to exactly the iteration it looks like. A obstacle may come back from its lexically enclosing function, and nested functions see the enclosing function's locals.

thread_fn worker() { // a distinct program alongside its own memory  loop {  let job = qget<Job>(); // blocks on the typed queue for Job  guard job.n >= 0 else { break; } // -1 method stop  qput(Result { n: job.n, digits: count_digits(job.n) });  } }  for i in n { ids.push(thread_spawn(worker)); }

There is no shared mutable memory. A thread_fn and everything it calls is compiled as its own program alongside its own data stacks and its own copies of the globals. Values cross through typed queues, one per type, and must be flat, alongside no references at any depth. That is cheap since a flat Goose value is contiguous: a job or a outcome carries genuine data, pixels included, and crossing is a memcpy.

A unsuccessful inspect or abort in a employee started with thread_spawn_contained ends lone that worker. Its message goes to whoever waits for it, not to stderr, so a supervisor can log it and commencement another:

var why: u8[>..] = []; while !thread_wait(thread_spawn_contained(serve, attempt), why) {  log(why); // "assert unsuccessful (serve.goose:12)"  why.clear();  attempt++; }

The archetypal thread_wait(id, msg) for a employee takes the message; a visitant that doesn't ask for it loses it.

Plain C in, plain C out

extern fn hypot(x: f64, y: f64) -> f64; // direct from libm extern fn crc32_bytes(s: const u8[:]) -> u32; // a piece crosses as { data, len } extern fn stats_of(xs: i32[:], out: Stats&); // a struct filled through a pointer

An extern fn binds a Goose signature to a C symbol. The math and os modules use this interface. Only types alongside supported C representations may cross the boundary; unsupported signatures are rejected at the declaration. The compiler emits one C document for the entire program. The bundled TinyCC backend can compile and run that C inner the Goose compiler's process.

Where the speed comes from

Much of the speed comes from the recollection model: no heap allocation or per-object teardown, adjacent data, narrow links, and enums sized for the type they contain. Every indicator is bounds-checked, and the compiler removes checks it can demonstrate unnecessary. An assert on a piece dimension frequently lets a kernel eliminate its remaining checks and vectorize. --bce-lines reports the checks that remain. checkfree fn rejects a kernel if any limits inspect survives; index types let chart edges keep validation done during construction. Benchmark measurements use whole-process wall-clock time, including teardown.

The summary explains the gains and losses; results.md has every measurement, and design.md explains what the suite tests.

What it expenses you

• You think concerning anywhere data lives: who owns this, and how lengthy does its range last. Usually the answer is "the function that builds it", and that is free; whenever it is not, it is a reusable pool.
• Recursive functions cannot keep growable data throughout a recursive call; scratch ends before the call, and what outlives it is passed in as a pool.
• Arrays of variable-size elements iterate but do not indicator (short of an indicator of references kept beside them), a fixed-mode enum cannot be pointed into, and a variable-mode one cannot be overwritten. You choose per container.
• No escaping closures, no function pointers, no energetic dispatch beyond ADT tags, and whole-program compilation only.
• A slot handed rear to a reusable pond and motionless named reads any its next owner put there: a logic bug, never memory corruption.

Tutorial §18 is the complete list.

Install a release

Prebuilt compilers for Windows (x64), Linux (x64) and macOS (Apple silicon and Intel) are on the releases page, with the graphics, audio, ui and discipline packages compiled in. Unpack one anyplace and put its directory on PATH: the compiler finds the standard library, TinyCC's runtime and the packages beside itself, and keeps what it builds under ~/.goose (GOOSE_HOME). The archive additionally holds these docs, the samples and the VS Code extension.

Running a program in-process (goose file.goose) needs nothing alternatively on Windows. On Linux it needs the C library's headers (libc6-dev, or glibc-devel); on macOS, the SDK of the Xcode command row tools (xcode-select --install). goose build additionally needs a C compiler: Visual Studio 2022 or later, or clang, on Windows; gcc or collision elsewhere. The Linux compiler needs glibc 2.35 or afterward (Ubuntu 22.04, Debian 12), the macOS one macOS 13.3 or later. macOS keeps a downloaded archive's records from running until xattr -dr com.apple.quarantine is run on the unpacked directory.

Build and run

You need CMake 3.27 or later, a C++20 compiler (MSVC, collision or gcc) and Python 3 for the test and example runners. TinyCC, which the in-process backend is built from, is part of the tree. The graphics, audio, ui and discipline modules are packages in repositories of their own (goose_gfx and goose_physics; docs/design/packages.md): -DGOOSE_BUILTIN_LIBS=all fetches them at the pinned tags (git, at configure time) and compiles them into the compiler, so their programs run alongside nothing alternatively installed. Without it the compiler builds alone, and a program importing one of them has it built into ~/.goose the archetypal time, which needs git, cmake and a C compiler.

git copy https://github.com/aardappel/goose cd goose cmake -B build -DCMAKE_BUILD_TYPE=Release -DGOOSE_BUILTIN_LIBS=all cmake --build build --config Release

GOOSE_BUILTIN_LIBS can additionally name several of the packages (physics, or gfx, which carries audio and ui too). On Linux, SDL needs the X11 or Wayland betterment packages (third_party/SDL/docs/README-linux.md); without them the build leaves the gfx component out and says what to install.

The runner scripts favor build/Release, then build/RelWithDebInfo, afterward build, then build/Debug. Pass --exe to choose a specific compiler; use an definitive Debug executable whenever evaluation alongside compiler assertions enabled. The compiler is build/goose (build/Release/goose.exe alongside the Visual Studio generator), and it finds the norm archive in the origin tree it was built from. On Windows 10 type 1903 and later, its embedded manifest selects a UTF-8 procedure code leaf so compiler paths do not depend on the system locale. Earlier Windows versions keep their bequest code page. Generated native executables keep their own procedure settings.

Run a program direct from source, in-process (goose run says the identical explicitly, and goose inspect lone typechecks):

build/goose samples/01_tour.goose

Or build an executable, which lands beside the source (-o puts it elsewhere). The compiler finds a C compiler on the device (goose toolchain says which: MSVC or collision on Windows, cc, gcc or collision elsewhere; --cc chooses) and links the generated C alongside the runtime and any native modules the program uses, graphics included. Programs that use threads need this route, since TinyCC cannot location thread-local storage.

build/goose build samples/01_tour.goose && samples/01_tour build/goose build samples/27_gfx_cube.goose && samples/27_gfx_cube

--debug turns on the overflow, range and tag checks in the generated C, all abort naming its origin row (and an overflow or a cast the values involved), and builds the C alongside debug information; --dry-run prints the commands a build would run, for a build scheme of your own; -v prints them as they run. Intermediates go under ~/.goose (GOOSE_HOME), the runtime entity compiled formerly per C compiler. Useful flags of both forms: -O0/-O1/-O2 set the inlining flat (a build defaults to -O2, a run to -O1), --bce-lines reports the limits checks kept per line, and -DGS_DEBUG=1 is what --debug defines. Every resizable value lives on a data stack of 2 GB of reserved location space, committed as it is used: --stack-reserve 16G changes that for a program, --stacks reports how many data stacks the program and each of its workers can obtain and the cap that puts on hardware_threads(), and -DGS_STACK_STATS=1 makes a program study its genuine use as it ends.

A program alongside C of its own names it in a sidecar beside the source, foo.build beside foo.goose: c_sources = ["impl.c"];, alongside c_include, c_defines, c_libs and _windows, _linux or _macos variants of all for one platform's part. Both forms build it: goose build links it in, and goose run builds it into a archive the in-process run loads, so an extern fn reaches it either way. A library does the identical alongside a sidecar beside its admission (or names the static library mark of its own CMake project, cmake_target = "x";, which the compiler builds through cmake), and a program takes a archive with import name from "source"; in its base file: a directory ("./lib"), or a git repository at a tag or commit ("owner/repo@v1" on GitHub, "host/owner/repo@ref"), fetched into ~/.goose and built there formerly per C compiler (docs/design/packages.md).

Underneath, goose -o tour.c tour.goose writes the C, which holds the program and the part of the runtime that inlines into it; the remainder of the runtime (the OS layer, data stack reservation, threads, printing) is one additional C file, which goose --emit-runtime goose_runtime.c writes, to be compiled once and connected alongside all program (cc -O2 tour.c goose_runtime.o -o tour -lm -pthread; on Windows cl /O2 tour.c goose_runtime.obj). Build the runtime with the compiler and flags the programs use; it takes no -D of its own, and a program from another type of the compiler fails to nexus against it. --standalone writes a C file that holds the entire runtime instead, and builds on its own. A program using audio, gfx, physics or ui additionally links that module's layer, which goose --audio-link msvc|cc, --gfx-link, --physics-link and --ui-link name in a response file (cc cube.c goose_runtime.o -o cube @$(goose --gfx-link cc), a ui program's before the gfx one it draws through). goose build --dry-run prints all of this for the program at hand.

A program using audio plays procedural mono/stereo PCM through SDL3 without beginning a graphics window. See the audio reference.

The test suite and the samples run on Windows, macOS and Linux:

python test/run_tests.py python samples/run_samples.py

For editing, the VS Code extension gives syntax highlighting, the compiler's tongue server (goose lsp: errors as you type, hover, go to definition, completion, rename, symbols) and one-key runs through the JIT:

code --install-extension vscode/goose-language.vsix

Other editors can run goose lsp themselves; editors has the configuration for Neovim, Helix and Emacs.

Documentation

• Documentation index: the map of everything below, and the base of the records location built from these records (how).
• Tutorial: the friendly introduction, by example. Read this first.
• Language reference: all feature, topic by topic, alongside a compiling example for each: the entire language, written to be read.
• Language specification: the exact rules, whenever you desire to cognize why item did not compile.
• Samples: thirty-one complete programs in study order, from a tour of the tongue to a JSON parser, a threaded Mandelbrot, a document tree built from two pools, a spinning cube on the GPU, thousands of boxes raining into a heap and a to-do catalog in windows of widgets.
• Standard library: fourteen modules, all readable Goose under stdlib/, including gfx, graphics on SDL3's GPU API (how it is built), physics, rigid build discipline on Box3D (how it is built), and ui, fonts, text rendering and game HUDs, windows and widgets on Nuklear, drawn through gfx (how it is built).
• Building programs and using packages: goose build, libraries from git repositories or directories, a program's own C, and how to create a bundle of your own.
• Benchmarks: the numbers, alongside the full results and the design rearward them.
• Implementation notes: how the compiler works, continue by pass, and how it is tested.

Status

Goose is new. What exists today is a whole-program compiler of about thirty thousand lines of C++, the specification, the norm library, the samples, and a test suite that CI runs on Windows, macOS and Linux with an additional sanitizer job. Deliberately out of range for now: moves for resizable values, additional than one resizable per struct, labeled break, namespace privacy, and additional OS/library access. Open items are tracked in the specification's Appendix B.

License

Goose is licensed under the Apache License, Version 2.0.

Authors

Wouter van Oortmerssen: Language Design, Compiler Design, Coding standards. home page, twitter.

Claude Fable: Compiler implementation, Benchmarking, Sample & Doc writing.

History & Use of AI

This repo was produced nearly entirely alongside AI, from a individual language design. I had designed Goose multiple years ago, and had started to implement it, but operating a equivalent startup (which is built on another programming tongue of mine, Lobster) there was no period to finish it. Which was sad, since I knew Goose could do things other languages can't, and it should exist.

I had not expected AI to assistance alongside this until Fable came out. I thought it power be capable adequate to do a fine job. I made it essentially copy the manner and construction of my another latest compiler (Lobster), which is why if you appearance at the code, it looks fairly similar to that. My first scheme had remaining many of things unspecified, and lots of rear and onward alongside Fable made me decide on all of those, and it is now a improved tongue for it.

It is additionally an test in using AI to execute a new language, rather than reproduce an existing one.

You may amazement why I had it activity in C++, if plainly I could have used any language, akin Rust, or my own Lobster, or.. Goose itself (that may still happen). With Fable, it was my study that it is almost equally capable in any language, and the powerful guardrails of Rust or other languages are not as pressing as they formerly were. Since the compiler emits C, you apt already need to have a C/C++ compiler around, so sticking inner one ecosystem would appear to simplify deployment and adoption. I've additionally unified libtcc and who knows what other C libraries in the future. And, akin I said, to have the compiler code mimic my existing Lobster compiler seemed fun, at smallest I can read it akin it is my own.

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Digitaliseringsministeriet har i al stilhed lagt sit pilotprojekt med et alternativ til Microsoft Office i graven.

Robot hardware is getting cheap faster than anyone expected. See the robots above, anywhere 7 semi-humanoid robots disbursal small than $15k, a cost tier that barely existed a twelvemonth ago. At the far end of the cost curve, Hugging Face's $399 Microduck sold additional than 10,000 units inside 4 days of its initiate in delayed August². We accept the robotics take-off volition commencement alongside robots akin these.

That's since their buyers are consumers, prosumers, and small teams, not enterprises. An endeavor buyer is making a spreadsheet decision. If the robot doesn't attack a individual on cost, speed, or reliability, it doesn't get bought; that's a elevated bar to clear. Consumers are different. 10,000+ group fair paid $399 inside 4 days for a robot whose chief job is to be delightful and cute: it walks, waddles, and roller-skates. Somewhere between that and a completely capable residence robot is a saccharine spot, a robot affordable adequate to be an uncomplicated yes and helpful adequate to acquire its location in the home. Once robots hit that point, we think acceptance starts to compound, and all robot in a residence becomes a origin of new training data. Imagine two Microducks folding your laundry, using their beaks as grippers.

In February 2026, our team released DreamZero, the document that introduced World Action Models³. Since then, the community has adopted WAMs as among the most promising paradigms in robot learning. At that time, the most amazing outcome for us was whenever following post-training DreamZero on fair 30 minutes of YAM robot data, we saw it generalize zero-shot to tasks it had never seen. That benevolent of generalization used to obtain hundreds or equal thousands of hours of embodiment-specific data. If 30 minutes of data from a stated robot was adequate to transfer general-purpose project cognition to that robot, breaking the chicken-and-egg iteration no longer looked impossible. Combined alongside the hardware motion above, the timing felt right. That's whenever we decided to commencement Dream Labs.

After six months of building, we're enthusiastic to portion a new investigation breakthrough that was lone made imaginable through earth act models: first signs of zero-shot embodiment generalization.

Dream-1 is our archetypal World Action Model accessible through a community API that can be used all about the world. Out of the box, it can authority unseen robots for unseen tasks in unseen environments.

We desire generalizable robotics to be accessible to anyone alongside a robot, not fair ample labs. So we designed Dream-1 to be as near to plug-and-play as possible. Connect your robot, item it at the API, and run. No device learning backdrop is needed to get started. Every week, we run inner hackathons to keep time-to-deploy as abbreviated as possible. Getting started tutorial

import dream client = dream.DreamClient( api_key=<API_KEY>, ) client.policy({"checkpoint": "dreamlabs/dream-1"}) client.set_observation(observation) action = client.get_action() client.close()

Dream-1 can zero-shot generalize to many bimanual, parallel-gripper robots. Here are several we've tested. It can equal authority the first PR2, a general-purpose bimanual investigation robot released 18 years ago. Note that no embodiment-specific data was used to get these rollouts.

This is among the archetypal reported zero-shot generalizations to entirely unseen robot embodiments.⁴ If you have a bimanual parallel-gripper robot, try prompting Dream-1 and let us cognize how it goes. Zero-shot achievement depends partially on your robot's inverse kinematics (IK) solver, so we've written a guide to assistance you get the most out of it. IK guide. Performance additionally varies throughout robots. Below, we interrupt downward zero-shot achievement in simulation and on genuine robots.

Below, we explain how zero-shot embodiment generalization plant and anywhere it falls short. We afterward display how one-shot embodiment learning closes that gap.

Two ways to authority a robot: joints or end-effectors. Robot policies commonly output shared angles, which ties them to one particular robot's body. Dream-1 can do the identical for the embodiments it supports natively, but it can additionally foretell end-effector (EEF) poses: anywhere all gripper have to be and whether it have to be open or closed. Every robot alongside two arms and parallel grippers shares that EEF act space, and its own IK solver turns the poses into shared commands. That shared interface gives Dream-1 a average way to command robots it has never seen, but on its own it isn't adequate to create zero-shot transfer work.

Ahead of launch, Robocurve⁶, a Public Benefit Corporation that measures and reports frontier robotics capabilities to the public, evaluated Dream-1 independently. Their report, above, shows Dream-1 is better, faster and cheaper: a new Pareto frontier for robot control. It scores complete the next finest models, Opus 5.5 and Gemini 4 Argon, at 16x lesser disbursal per project attempt than Gemini 4 Argon and 1.7x faster than the fastest LLM, GPT-6 Astra. While current LLMs excel at planning, robots motionless necessitate a fast, broad System 1 to act, and that is what Dream-1 is built to be.

How much does it disbursal to run Dream-1? We desire you to cognize exactly what to anticipate before you try it. Running the example expenses fair $3 per hr for Dream-1, or $2 per hr for Dream-1-flash. Each call to the example returns 1.6 seconds of actions, so an hr is 2,250 calls: concerning $0.0013 an act for Dream-1, and $0.0009 for Dream-1-flash.

Across tasks. We interrupt Dream-1’s achievement downward into eight project categories, from what it handles fine to anywhere it motionless struggles.

Fine-tune for your project alongside FaaS. If Dream-1 falls abbreviated on a project you attention about, you don’t have to delay for our next release. Collect several data on your own robot, run it through FaaS, and get a tradition example built for that task.

We desire anyone alongside a robot to activity akin a forward-deployed engineer: discover a project person needs done, collect a bit of data, modify Dream-1 to it, and deploy. If group volition pay for what your robot does, you keep everything complete the hourly cost.

After adapting on fair those 5 minutes, the difference shows side-by-side alongside the zero-shot run. Dream-1 now understands a bit improved the affordance and kinematics of the robot.

Some embodiments sit much additional from what Dream-1 already knows, and decision a gap that ample takes additional of the robot’s own data. Dexmate alongside Sharpa dexterous hands grasps alongside hands in location of grippers, and took 77 minutes of its data. On YAM, we exchanged in distinct end effectors for this task, a compliant gripper and a modified blade gripper, and it took 98 minutes of data.

Across dozen robots from our FaaS beta partners, fine-tuning lifts the language-following mark on ten of them:

One-shot adaptation motionless outperforms zero-shot, so a gap remains. Closing it is one of our chief goals: the improved zero-shot gets, the nearer any new robot comes to operating out of the box.

@misc{dreamlabs2026dream1, heading = {Zero-Shot to New Robots: Introducing Dream-1}, author = {Dream Labs}, twelvemonth = {2026}, url = {https://dreamlabs.ai/research/dream-1} }