@@ -41,7 +41,7 @@ And the library works with the following platforms: *jdk7*, *jdk8*, *node-lts*.
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== Getting started
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The main goal of _octet_ is provide, multiplatform abstraction for work with
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- byte buffer's . Offering a ligweight api for define message types in a declarative
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+ byte buffers . Offering a lightweight api for define message types in a declarative
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way and use them for read or write to bytebuffers.
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As previously said, _octet_ works with both most used clojure implementations:
@@ -59,7 +59,7 @@ Two most common composition types are: associative and indexed.
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The difference of indexed and associative compositions is the input and output. In
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associative composition the expected input and output is a map. And in indexed
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- composition, the expected input and input is a vector. Internally them represents
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+ composition, the expected input and input is a vector. Internally it represents
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the same value in bytes.
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Let start defining one:
@@ -108,7 +108,7 @@ This operation is almost platform independent if the library defaults satisfies
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(def buffer (buf/allocate 24))
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----
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- The buffer allocation is parametrizable so you can specify the concrete
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+ The buffer allocation is parameterisable so you can specify the concrete
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implementation to use and the type of buffer:
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.Example allocation 24 bytes size buffer with nio buffer implementation
@@ -136,7 +136,7 @@ You can see all supported options <<supported-bytebuffers,here>>
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[NOTE]
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====
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- The return value of `allocate` depens on implementation used. Is a plain instance
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+ The return value of `allocate` depends on the implementation used. Is a plain instance
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without additional wrapping. If you want access to its internals, you can do it
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with native host platform api.
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====
@@ -150,7 +150,7 @@ specs. Specs are simple schema on how the data should be read or write to the bu
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.Example writing data into buffer using indexed composed schema
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[source, clojure]
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----
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- ;; The indexed composed spec exptects a vector as input
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+ ;; The indexed composed spec expects a vector as input
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(buf/write! buffer [22 true] my-spec1)
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;; => 5
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----
@@ -195,8 +195,8 @@ Also, you can perform the same operation, but using a associative spec:
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[NOTE]
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====
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- This works idependently of implementation used for allocate the buffer. Some
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- implementations has little limitations, es6 (cljs) as example, des not support
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+ This works independently of implementation used for allocate the buffer. Some
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+ implementations have a few limitations; es6 (cljs) as example, does not support
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`int64` typespec due to platform limitations.
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====
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@@ -267,7 +267,7 @@ with `repeat` composition function:
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=== Using arbitrary size type specs
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- Until now, we have seen examples alway using fixed size compositions. Fixed size
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+ Until now, we have seen examples always using fixed size compositions. Fixed size
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compositions are easy understand, the size of the spec can be know in any time.
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But in some circumstances we want store arbitrary length. Strings are one great
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example:
@@ -353,9 +353,9 @@ that it has always an overhead of 4 bytes for store the length of the vector.
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=== Read and write spec to multiple byte buffers
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In some circumstances (specially when we working with streams) the buffers are
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- splitted . The simplest but not very efficient approach will be copy all data in one
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+ split . The simplest but not very efficient approach will be copy all data in one
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unique byte buffer and read a spec from it. Octet comes with facilities for read a
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- spec from a vector of buffers that prevents unnecesary copy action.
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+ spec from a vector of buffers that prevents unnecessary copy action.
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.Example reading and writing data to a vector of buffers
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[source, clojure]
@@ -386,7 +386,7 @@ situations. _octet_ is build around abstractions and define new type spec is not
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very complicated job.
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An typespec consists mainly in `ISpec` protocol that has two methods: `read` and
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- `write`. Let see an example defining a typespec for point of coordenades :
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+ `write`. Let see an example defining a typespec for point of coordinades :
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.Example definition of type spec that represents a point
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[source, clojure]
@@ -401,7 +401,7 @@ An typespec consists mainly in `ISpec` protocol that has two methods: `read` and
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(reify
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spec/ISpecSize
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(size [_]
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- ;; we kwno that is datatype has fixed size in bytes
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+ ;; we know that is datatype has fixed size in bytes
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;; that represents two int32.
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8)
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@@ -495,7 +495,7 @@ implements the same abstraction and can be used in read or write operations.
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=== Byte order
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All the builtin implementations uses the `:big-endian` as default byte order. That
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- value can be canched at any time using the provided `*byteorder*` dynamic var on
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+ value can be cached at any time using the provided `*byteorder*` dynamic var on
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the `octet.buffer` namespace.
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Let see a little example:
@@ -514,7 +514,7 @@ Let see a little example:
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;; => 19
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(buf/read buffer myspec)
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- ;; => BufferUnderflowException (because of incorect byte order)
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+ ;; => BufferUnderflowException (because of incorrect byte order)
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(buf/with-byte-order :little-endian
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(buf/read buffer myspec))
@@ -526,7 +526,7 @@ Let see a little example:
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*What is the difference with _clojurewerkz/buffy_?*
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- *Buffy* is a excelent library, and I have used it in some circumstances, but is has
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+ *Buffy* is a excellent library, and I have used it in some circumstances, but is has
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some things that I personally don't like:
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- It works only with netty bytebuf and I need an abstraction for work with
@@ -540,13 +540,13 @@ some things that I personally don't like:
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*What is the difference with _ztellman/gloss_?*
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- Gloss is also similiar project, and has similar purposes, but it has several
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- differeces :
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+ Gloss is also similar project, and has similar purposes, but it has several
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+ differences :
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- It has a limited set of types. Octet has an extensible abstraction for build own
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arbitrary type specs.
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- It only works with nio as buffer implementations. Octet exposes an extensible
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- abstraction and support few differents out of the box.
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+ abstraction and supports a few different implementations out of the box.
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- In my opinion it has slightly ugly and unclear api.
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- Seems not very maintained (has issues from 2013).
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- It not has support for ClojureScript.
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