[Update: Aug 2017. Adapted to the full Go rewrite of protoc-gen-bug, currently 1.0.0-rc
]
I don't have an answer for type aliases, but do have one for this:
My immediate goal is to make documentation (generated with protoc-gen-doc
) more readily understandable.
And also I want to point out that protoc-gen-doc
has been entirely rewritten in Go and now uses Docker for generation instead of apt-get
.
I have created some html
and markdown
demo's of using inline rich formatting within your comments, like adding links, code snippets, tables, bold, italic, etc.
And also describe how you can auto-generate and publish to Github Pages (gh-pages
branch) using TravisCI
There are some small bugs that still need to be solved (Aug 2017) for it to be production-ready.
View the demo's + description at:
.
For example having markdown inlined comments like these:
/**
* The **SLEEP** format is designed by the [Dat Project](https://datproject.org)
* to allow for sparse replication, meaning you can efficiently download
* only the metadata and data required to resolve a single byte region
* of a single file, which makes Dat suitable for a wide variety of streaming,
* _real-time_ and large dataset use cases.
*
* To take advantage of this, Dat includes a _network protocol_. It is message
* based and stateless, making it possible to implement on a variety of network
* transport protocols including UDP and TCP.
*
* Both metadata and content registers in **SLEEP** share the exact same
* replication protocol.
*
* Individual messages are encoded using Protocol Buffers and there are ten
* message types in total.
*
* ### Wire Protocol
*
* Over the wire messages are packed in the following lightweight
* container format:
*
* ```
* <varint - length of rest of message>
* <varint - header>
* <message>
* ```
*
* The `header` value is a single `varint` that has two pieces of information,
* the integer type that declares a 4-bit message type (used below), and a
* channel identifier, 0 for metadata and 1 for content.
*
* To generate this varint, you bitshift the 4-bit type integer onto the end of
* the channel identifier, e.g. channel << 4 | <4-bit-type>.
*
* ### Using in NodeJS
*
* The `protocol-bufers` package offers an intuitive javascript API, so you need
* not worry about low-level protocol concepts.
*
* This example demonstrates how you create a feed and start streaming:
*
* ```javascript
* var protocol = require('hypercore-protocol')
* var stream = protocol()
*
* // open a feed specified by a 32 byte key
* var feed = stream.feed(Buffer('deadbeefdeadbeefdeadbeefdeadbeef'))
*
* feed.request({block: 42})
* feed.on('data', function (message) {
* console.log(message) // contains message.index and message.value
* })
*
* stream.pipe(anotherStream).pipe(stream)
* ```
*/
.
Will result in output similar to this:
HypercoreSpecV1_md.proto
The SLEEP format is designed by the Dat
Project to allow for sparse replication,
meaning you can efficiently download only the metadata and data
required to resolve a single byte region of a single file, which makes
Dat suitable for a wide variety of streaming,
real-time and large dataset use cases.
To take advantage of this, Dat includes a network protocol. It is
message based and stateless, making it possible to implement on a
variety of network transport protocols including UDP and TCP.
Both metadata and content registers in SLEEP share the exact same
replication protocol.
Individual messages are encoded using Protocol Buffers and there are
ten message types in total.
Wire Protocol
Over the wire messages are packed in the following lightweight
container format:
<varint - length of rest of message>
<varint - header>
<message>
The header
value is a single varint
that has two pieces of
information, the integer type that declares a 4-bit message type (used
below), and a channel identifier, 0 for metadata and 1 for content.
To generate this varint, you bitshift the 4-bit type integer onto the
end of the channel identifier, e.g. channel << 4 | <4-bit-type>.
Using in NodeJS
The protocol-bufers
package offers an intuitive javascript API, so
you need not worry about low-level protocol concepts.
This example demonstrates how you create a feed and start streaming:
var protocol = require('hypercore-protocol')
var stream = protocol()
// open a feed specified by a 32 byte key
var feed = stream.feed(Buffer('deadbeefdeadbeefdeadbeefdeadbeef'))
feed.request({block: 42})
feed.on('data', function (message) {
console.log(message) // contains message.index and message.value
})
stream.pipe(anotherStream).pipe(stream)
(Note: The hypercore protocol is one of the core specifications of the Dat Project ecosystem of modules for creating decentralized peer-to-peer application designs. I used their .proto
file to demonstrate concepts)