Ensure that we are complying with Rust API Guidelines

[kinggoesgaming]

• You can visit https://rust-lang-nursery.github.io/api-guidelines/ to get more information on each guideline.
• If we are not complying with any point, open a separate issue and link the issue as the tracking issue here.
• If a point is not applicable to uuid put two ~~ around it to cross it out.

---

• Naming (crate aligns with Rust naming conventions)
  • Casing conforms to RFC 430 (C-CASE)
  • Ad-hoc conversions follow as_, to_, into_ conventions (C-CONV)
  • Getter names follow Rust convention (C-GETTER)
  • Methods on collections that produce iterators follow iter, iter_mut, into_iter (C-ITER)
    • We do not have any collections
  • Iterator type names match the methods that produce them (C-ITER-TY)
    • We do not have any iterator types.
  • Feature names are free of placeholder words (C-FEATURE)
  • Names use a consistent word order (C-WORD-ORDER)
• Interoperability (crate interacts nicely with other library functionality)
  • Types eagerly implement common traits (C-COMMON-TRAITS)
    • Copy, Clone, Eq, PartialEq, Ord, PartialOrd, Hash, Debug,
      Display, Default
  • Conversions use the standard traits From, AsRef, AsMut (C-CONV-TRAITS)
  • Collections implement FromIterator and Extend (C-COLLECT)
    • We do not have any collections.
  • Data structures implement Serde's Serialize, Deserialize (C-SERDE)
  • Types are Send and Sync where possible (C-SEND-SYNC)
  • Error types are meaningful and well-behaved (C-GOOD-ERR)
  • Binary number types provide Hex, Octal, Binary formatting (C-NUM-FMT)
    • Uuid and associated adapters dont need Octal and Binary formatting.
  • Generic reader/writer functions take R: Read and W: Write by value (C-RW-VALUE)
    • We do not have reader/writer functions
• Macros (crate presents well-behaved macros)
  • Input syntax is evocative of the output (C-EVOCATIVE)
    • We do not have any public macros
  • Macros compose well with attributes (C-MACRO-ATTR)
    • We do not have any public macros
  • Item macros work anywhere that items are allowed (C-ANYWHERE)
    • We do not have any public macros
  • Item macros support visibility specifiers (C-MACRO-VIS)
    • We do not have any public macros
  • Type fragments are flexible (C-MACRO-TY)
    • We do not have any public macros
• Documentation (crate is abundantly documented)
  • Crate level docs are thorough and include examples (C-CRATE-DOC)
  • All items have a rustdoc example (C-EXAMPLE)
  • Examples use ?, not try!, not unwrap (C-QUESTION-MARK)
  • Function docs include error, panic, and safety considerations (C-FAILURE)
  • Prose contains hyperlinks to relevant things (C-LINK)
  • Cargo.toml includes all common metadata (C-METADATA)
    • authors, description, license, homepage, documentation, repository,
      readme, keywords, categories
  • Crate sets html_root_url attribute "https://docs.rs/CRATE/X.Y.Z" (C-HTML-ROOT)
  • Release notes document all significant changes (C-RELNOTES)
  • Rustdoc does not show unhelpful implementation details (C-HIDDEN)
• Predictability (crate enables legible code that acts how it looks)
  • Smart pointers do not add inherent methods (C-SMART-PTR)
    • We do not have smart pointers
  • Conversions live on the most specific type involved (C-CONV-SPECIFIC)
  • Functions with a clear receiver are methods (C-METHOD)
  • Functions do not take out-parameters (C-NO-OUT)
  • Operator overloads are unsurprising (C-OVERLOAD)
    • We do not have any types with operator overloading
  • Only smart pointers implement Deref and DerefMut (C-DEREF)
    • We do not have smart pointers
  • Constructors are static, inherent methods (C-CTOR)
• Flexibility (crate supports diverse real-world use cases)
  • Functions expose intermediate results to avoid duplicate work (C-INTERMEDIATE)
  • Caller decides where to copy and place data (C-CALLER-CONTROL)
  • Functions minimize assumptions about parameters by using generics (C-GENERIC)
  • Traits are object-safe if they may be useful as a trait object (C-OBJECT)
• Type safety (crate leverages the type system effectively)
  • Newtypes provide static distinctions (C-NEWTYPE)
  • Arguments convey meaning through types, not bool or Option (C-CUSTOM-TYPE)
  • Types for a set of flags are bitflags, not enums (C-BITFLAG)
    • We don't have any flags
  • Builders enable construction of complex values (C-BUILDER)
• Dependability (crate is unlikely to do the wrong thing)
  • Functions validate their arguments (C-VALIDATE)
  • Destructors never fail (C-DTOR-FAIL)
  • Destructors that may block have alternatives (C-DTOR-BLOCK)
    • We don't have destructors that may block
• Debuggability (crate is conducive to easy debugging)
  • All public types implement Debug (C-DEBUG)
  • Debug representation is never empty (C-DEBUG-NONEMPTY)
• Future proofing (crate is free to improve without breaking users' code)
  • Sealed traits protect against downstream implementations (C-SEALED)
  • Structs have private fields (C-STRUCT-PRIVATE)
  • Newtypes encapsulate implementation details (C-NEWTYPE-HIDE)
  • Data structures do not duplicate derived trait bounds (C-STRUCT-BOUNDS)
• Necessities (to whom they matter, they really matter)
  • Public dependencies of a stable crate are stable (C-STABLE)
  • Crate and its dependencies have a permissive license (C-PERMISSIVE)

[KodrAus]

It would be good to run through this when we're ready to release a 1.0 👍