æ¥æ¬èªã®TLA+ã«é¢ããæç®ãã»ã¨ãã©è¦ã¤ãããªãã®ã§ãæ¥æ¬èªã§ã¾ã¨ãã¦ããããã¨æãã¾ãã 誤ã£ãæ å ±ã追è¨ãããæ å ±ãªã©ã¯ãã¡ãã«Issueã¾ãã¯ãPRãéã£ã¦ããã ããã¨å©ããã¾ãã TLA+ã®åå¼·æ³ã»å¦ç¿æ³ ããã¥ã¡ã³ããè¬ç¾©ãªã© Leslie Lamport's TLA homepage: ãã¼ã ãã¼ã¸ã§ãã Hyperbook: ãã¥ã¼ããªã¢ã«ãªã©ãæ±ã£ãHyperbookã§ãããã¡ãã®ãã¼ã¸ãããã¦ã³ãã¼ããå¯è½ã§ãã TLA video course: TLA+ã®ä½è ã§ããLamprtããã®åç»ææã§ãã Specifying Systems: Leslie Lamportã«ãããã®ã§ãåºç社ãéãã¦ã®æ³¨æãå人使ç¨ã®ããã®ãã¦ã³ãã¼ãã«ãªã³ã¯ãã¦ãã¾ãã Learn TLA ãã£ã¨ã詳細ã«TLA+åã³PlusCalã®ææ³ãä½¿ãæ¹ã«ã¤ãã¦èª¬æãã¦ããå ´æã§ããç¾ç¶å¯ä¸ã®æ å ±
20ä¸ç´ã§æãå¤ãã®è«æãæ¸ããæ°å¦è ã¨ãã¦ç¥ããããã¼ã«ã»ã¨ã«ãã·ã¥ã¯ãã®ç涯ã§å¤ãã®æªè§£æ±ºåé¡ãçºæ¡ãã¦ããããããã¯ãã¨ã«ãã·ã¥ã®åé¡ãã¨ãã¦ç¥ããã¦ãã¾ãããã®ã¨ã«ãã·ã¥ã®åé¡ã®ãã¡ã®1åãGPT-5.2 Proã解決ããèåãªæ°å¦è ã§ãããã¬ã³ã¹ã»ã¿ãªæ°ããç§ãã¡ã®ç¥ãéããæ¢åã®æç®ã§ã¯åç¾ãããªããã»ã¼èªå¾çãªè§£æ±ºã§ãããAIã®è½åãæ¬å½ã«åä¸ãããã¨ã示ããã®ã ãã¨ã³ã¡ã³ããã¦ãã¾ãã How We Used GPT-5.2 to Solve an Erdos Problem : r/singularity https://www.reddit.com/r/singularity/comments/1q6vaxj/how_we_used_gpt52_to_solve_an_erdos_problem/ AI contributions to ErdÅs problems ·
The World's Most Advanced Formal Reasoning Agent> Get access nowWhat others are saying about Aristotle... Weâre the #1 formal math model according to ProofBench, by @ValsAI, ahead of the closest competitor by 15%. Aristotle Agent can autonomously prove/formalize for up to 24 hrs without human intervention.
RISC-V Formal Verification Frameworkã¯ãRISC-Vããã»ããµã®å½¢å¼çæ¤è¨¼ãè¡ãããã®å æ¬çãªãã¬ã¼ã ã¯ã¼ã¯ã§ããã ãã®ãã¬ã¼ã ã¯ã¼ã¯ã¯ãRISC-V Formal Interface (RVFI)ãä¸å¿ã¨ãã¦æ§ç¯ããã¦ãããSystemVerilog Assertions (SVA)ãæ´»ç¨ããå½¢å¼çãã¹ããã³ããæä¾ããã riscv-formalã®ç®çã¨æç¾© riscv-formalã®ä¸»ãªç®çã¯ãRISC-Vããã»ããµã®æ©è½çæ£ç¢ºæ§ãæ°å¦çã«è¨¼æãããã¨ã§ããã 徿¥ã®ã·ãã¥ã¬ã¼ã·ã§ã³ãã¼ã¹ã®æ¤è¨¼ã§ã¯ããã¹ãã±ã¼ã¹ã®ç¶²ç¾ æ§ã«ä¾åããããããã°ã®è¦è½ã¨ããçºçããå¯è½æ§ãããã 䏿¹ãå½¢å¼çæ¤è¨¼ã§ã¯ãå ¨ã¦ã®å¯è½ãªå ¥åã¨ç¶æ é·ç§»ãæ°å¦çã«æ¤è¨¼ãããã¨ã§ãããã»ããµã®æ£ç¢ºæ§ãä¿è¨¼ã§ããã RISC-V Formal Interface (RVFI) ã®æ¦
ProVerif: Cryptographic protocol verifier in the formal model ProVerif is an automatic cryptographic protocol verifier, in the formal model (so called Dolev-Yao model). This protocol verifier is based on a representation of the protocol by Horn clauses. Its main features are: It can handle many different cryptographic primitives, including shared- and public-key cryptography (encryption and signat
SymbiYosysã«ãããã¶ã¤ã³æ¤è¨¼ã®ç¶ãï¼FIFOã®æ¤è¨¼ã§ãæ¤è¨¼ã失æããã±ã¼ã¹ããããã°ããã symbiyosys.readthedocs.io ç·´ç¿åé¡ [script] nofullskip: read -define NO_FULL_SKIP=1 noverific: read -noverific read -formal fifo.sv hierarchy -check -top fifo -chparam MAX_DATA 17 prep -top fifo 追å ããhierarchyã³ãã³ãã¯ããããã»ã¢ã¸ã¥ã¼ã«ã®MAX_DATAãã©ã¡ã¼ã¿ã¼ã17ã«å¤æ´ãããbasicã¿ã¹ã¯ãå®è¡ããä½ãèµ·ãããè¦ã¦ã¿ãããAssert failed in fifo: a_count_diff ã®ãããªã¨ã©ã¼ãåºãã¯ãããã¹ã¦ã®ãã¹ãã«åæ ¼ããªãããMAX_DATAã®ãã大ããªå¤ã§å
SymbiYosysã«ãããã¶ã¤ã³æ¤è¨¼ã®ç¶ãï¼FIFOã®æ¤è¨¼ä¾ã§ãã«ãã¼ã±ã¼ã¹ãåå¾ããæ¹æ³ãè¦ã¦ã¿ãã æ£ããåä½ã®éãw_underfillã¹ãã¼ãã¡ã³ãã¯ã¢ã³ãã¼ããã¼ã®ã±ã¼ã¹ãã«ãã¼ãããfifo_cover/logfile.txtã調ã¹ãã¨ãæ¢ãã¦ããcoverã¹ãã¼ãã¡ã³ããå«ããã¬ã¼ã¹ãã¡ã¤ã«ããããããã®ãã¡ã¤ã«ãåå¨ããªãå ´åã¯ã以ä¸ã®ã³ã¼ããå®è¡ããã $ sby fifo.sby cover w_underfill ã¨ããã®ã¯ããã㪠(追è¨ï¼éã£ããå®éã«ã¯ https://msyksphinz.hatenablog.com/entry/2025/05/18/040000 ã«æ¸ããã¨ããããã£ã¨ã·ã³ãã«ãªããããã£ãåä½ãã¦ãã) // use block formatting for w_underfill so it's easier to describe i
About Loogle searches Lean and Mathlib definitions and theorems. You can use Loogle from within the Lean4 VSCode language extension using (by default) Ctrl-K Ctrl-S. You can also try the #loogle command from LeanSearchClient, the CLI version, the Loogle VS Code extension, the lean.nvim integration or the Zulip bot. Usage Loogle finds definitions and lemmas in various ways: By constant: ð Real.sin
Functional Programming in Lean by David Thrane Christiansen Copyright Microsoft Corporation 2023 This is a free book on using Lean 4 as a programming language. All code samples are tested with Lean 4 release 4.1.0. Release history January, 2024 This is a minor bugfix release that fixes a regression in an example program. October, 2023 In this first maintenance release, a number of smaller issues w
Functional Programming in Lean (FPIL) is the main resource for programmers who want to learn Lean. It assumes a background in programming, but no prior knowledge of functional programming is needed. Theorem Proving in Lean (TPIL) is designed to teach you to develop and verify proofs in Lean and covers dependent type theory, automated proof methods, and Lean-specific features for interactive theore
Jeremy AvigadLeonardo de MouraSoonho KongSebastian Ullrich with contributions from the Lean Community This version of the text assumes youâre using Lean 4 (specifically 4.26.0). See the Quickstart section of the Lean documentation to install Lean. The first version of this book was written for Lean 2, and the Lean 3 version is available here.
Theorem Proving in Lean 4 by Jeremy Avigad, Leonardo de Moura, Soonho Kong and Sebastian Ullrich, with contributions from the Lean Community ãã®ããã¹ãã¯èªè ãLean 4ã使ããã¨ãåæã«ãã¦ãã¾ããLean 4ãã¤ã³ã¹ãã¼ã«ããã«ã¯ãLean 4 Manualã®ç¯Quickstartãã覧ãã ããããã®ããã¹ãã®æåã®ãã¼ã¸ã§ã³ã¯Lean 2ç¨ã«æ¸ããã¾ãããLean 3ç¨ã®ãã¼ã¸ã§ã³ã¯ãã¡ãã§å ¥æå¯è½ã§ãã ãã®ç¿»è¨³ã«ã¤ã㦠translated by aconite(2ç« ï½12ç« ), Haruhisa Enomoto(1ç« ) ãã®ç¿»è¨³ã¯æå¿ã«ããéå ¬å¼ç¿»è¨³ã§ãã翻訳ã«éãã¦ã表ç¾ã大ããå¤ããç®æããåããããããæãããè¨è¿°ãã³ã¼ãä¾ã追å
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