archive
/
matrix-spec
mirror of https://github.com/matrix-org/matrix-spec
1
0
Fork 0
Code Issues Packages Projects Releases Wiki Activity

Small grammatical and stylistic fixes

Browse Source
pull/977/head
user 7 years ago
parent 39e33d0cbb
commit 5ab5fe08d1
3 changed files with 221 additions and 206 deletions
Show Stats Download Patch File Download Diff File

6
api/server-server/directory.yaml
Unescape Escape View File

@ -27,13 +27,13 @@ paths:
get:
summary: Retrieve the room ID and list of resident homeservers for a room
alias.
description: Retrieve the room ID and list of resident homeservers for a Room
description: Retrieve the room ID and list of resident homeservers for a room
alias.
parameters:
- in: query
name: room_alias
type: string
description: Room alias
description: Room alias.
required: true
x-example: "#room_alias:example.org"
responses:
@ -65,4 +65,4 @@ paths:
"example.com",
"another.example.com:8449",
]
}
}

1
scripts/css/blockquote.css
Unescape Escape View File

@ -1,5 +1,4 @@
blockquote {
margin: 20px 0 30px;
border-left: 5px solid;
padding-left: 20px;
}

420
specification/server_server_api.rst
Unescape Escape View File

@ -126,20 +126,20 @@ Publishing Keys
Homeservers publish the allowed TLS fingerprints and signing keys in a JSON
object at ``/_matrix/key/v2/server/{key_id}``. The response contains a list of
``verify_keys`` that are valid for signing federation requests made by the
server and for signing events. It contains a list of ``old_verify_keys``
which are only valid for signing events. Finally the response contains a list
of TLS certificate fingerprints to validate any connection made to the server.
server and for signing events. It contains a list of ``old_verify_keys`` which
are only valid for signing events. Finally the response contains a list of TLS
certificate fingerprints to validate any connection made to the server.
A server may have multiple keys active at a given time. A server may have any
number of old keys. It is recommended that servers return a single JSON
response listing all of its keys whenever any ``key_id`` is requested to reduce
the number of round trips needed to discover the relevant keys for a server.
However a server may return a different responses for a different ``key_id``.
However a server may return different responses for a different ``key_id``.
The ``tls_certificates`` contain a list of hashes of the X.509 TLS certificates
currently used by the server. The list must include SHA-256 hashes for every
certificate currently in use by the server. These fingerprints are valid until
the millisecond POSIX timestamp in ``valid_until_ts``.
The ``tls_certificates`` field contains a list of hashes of the X.509 TLS
certificates currently used by the server. The list must include SHA-256 hashes
for every certificate currently in use by the server. These fingerprints are
valid until the millisecond POSIX timestamp in ``valid_until_ts``.
The ``verify_keys`` can be used to sign requests and events made by the server
until the millisecond POSIX timestamp in ``valid_until_ts``. If a homeserver
@ -152,17 +152,18 @@ before the ``expired_ts``. The ``expired_ts`` is a millisecond POSIX timestamp
of when the originating server stopped using that key.
Intermediate notary servers should cache a response for half of its remaining
life time to avoid serving a stale response. Originating servers should avoid
lifetime to avoid serving a stale response. Originating servers should avoid
returning responses that expire in less than an hour to avoid repeated requests
for an about to expire certificate. Requesting servers should limit how
frequently they query for certificates to avoid flooding a server with requests.
for a certificate that is about to expire. Requesting servers should limit how
frequently they query for certificates to avoid flooding a server with
requests.
If a server goes offline intermediate notary servers should continue to return
the last response they received from that server so that the signatures of old
events sent by that server can still be checked.
==================== =================== ======================================
Key Type Description
Key Type Description
==================== =================== ======================================
``server_name`` String DNS name of the homeserver.
``verify_keys`` Object Public keys of the homeserver for
@ -172,7 +173,7 @@ events sent by that server can still be checked.
``signatures`` Object Digital signatures for this object
signed using the ``verify_keys``.
``tls_fingerprints`` Array of Objects Hashes of X.509 TLS certificates used
by this this server encoded as `Unpadded Base64`_.
by this server encoded as `Unpadded Base64`_.
``valid_until_ts`` Integer POSIX timestamp when the list of valid
keys should be refreshed.
==================== =================== ======================================
@ -209,38 +210,38 @@ events sent by that server can still be checked.
Querying Keys Through Another Server
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
Servers may offer a query API ``_matrix/key/v2/query/`` for getting the keys
for another server. This API can be used to GET at list of JSON objects for a
Servers may offer a query API ``/_matrix/key/v2/query/`` for getting the keys
for another server. This API can be used to GET a list of JSON objects for a
given server or to POST a bulk query for a number of keys from a number of
servers. Either way the response is a list of JSON objects containing the
JSON published by the server under ``_matrix/key/v2/server/`` signed by
JSON published by the server under ``/_matrix/key/v2/server/`` signed by
both the originating server and by this server.
The ``minimum_valid_until_ts`` is a millisecond POSIX timestamp indicating
when the returned certificate will need to be valid until to be useful to the
requesting server. This can be set using the maximum ``origin_server_ts`` of
an batch of events that a requesting server is trying to validate. This allows
a batch of events that a requesting server is trying to validate. This allows
an intermediate notary server to give a prompt cached response even if the
originating server is offline.
This API can return keys for servers that are offline be using cached responses
This API can return keys for servers that are offline by using cached responses
taken from when the server was online. Keys can be queried from multiple
servers to mitigate against DNS spoofing.
Requests:
Example request:
.. code::
GET /_matrix/key/v2/query/${server_name}/${key_id}/?minimum_valid_until_ts=${minimum_valid_until_ts} HTTP/1.1
GET /_matrix/key/v2/query/{server_name}/{key_id}/?minimum_valid_until_ts={minimum_valid_until_ts} HTTP/1.1
POST /_matrix/key/v2/query HTTP/1.1
Content-Type: application/json
{
"server_keys": {
"$server_name": {
"$key_id": {
"minimum_valid_until_ts": $posix_timestamp
"{server_name}": {
"{key_id}": {
"minimum_valid_until_ts": {posix_timestamp}
}
}
}
@ -263,14 +264,14 @@ Response:
Version 1
+++++++++
.. WARNING::
Version 1 of key distribution is obsolete
Version 1 of key distribution is obsolete.
Homeservers publish their TLS certificates and signing keys in a JSON object
at ``/_matrix/key/v1``.
==================== =================== ======================================
Key Type Description
Key Type Description
==================== =================== ======================================
``server_name`` String DNS name of the homeserver.
``verify_keys`` Object Public keys of the homeserver for
@ -299,7 +300,7 @@ at ``/_matrix/key/v1``.
When fetching the keys for a server the client should check that the TLS
certificate in the JSON matches the TLS server certificate for the connection
and should check that the JSON signatures are correct for the supplied
``verify_keys``
``verify_keys``.
Transactions
------------
@ -321,7 +322,7 @@ Transaction Fields
~~~~~~~~~~~~~~~~~~
==================== =================== ======================================
Key Type Description
Key Type Description
==================== =================== ======================================
``origin`` String **Required**. ``server_name`` of homeserver sending
this transaction.
@ -339,10 +340,10 @@ Example:
.. code:: json
{
"origin_server_ts":1404835423000,
"origin":"matrix.org",
"pdus":[...],
"edus":[...]
"origin_server_ts": 1404835423000,
"origin": "matrix.org",
"pdus": [...],
"edus": [...]
}
PDUs
@ -368,19 +369,18 @@ PDU Fields
``origin_server_ts`` Integer **Required**. Timestamp in milliseconds
on origin homeserver when this event
was created.
``type`` String **Required**. Event type
``state_key`` String Optional. If this key is present, the
event is a state event, and it will
replace previous events with the same
``type`` and ``state_key`` in the room
state.
``type`` String **Required**. Event type.
``state_key`` String If this key is present, the event is a
state event, and it will replace
previous events with the same ``type``
and ``state_key`` in the room state.
``content`` Object **Required**. The content of the event.
``prev_events`` List of (String, **Required**. Event IDs and hashes of
{String: String}) the most recent events in the room that
pairs the homeserver was aware of when it
made this event
made this event.
``depth`` Integer **Required**. The maximum depth of the
``prev_events``, plus one
``prev_events``, plus one.
``auth_events`` List of (String, **Required**. Event IDs and hashes for
{String: String}) the "auth events" of this event.
pairs
@ -390,10 +390,10 @@ PDU Fields
``signatures`` {String: **Required**. Signatures of the redacted
{String: String}} PDU, following the algorithm specified
in `Signing Events`_.
``redacts`` String Optional. For redaction events, the ID
of the event being redacted
``unsigned`` Object Optional. Additional data added by the
origin server but not covered by the
``redacts`` String For redaction events, the ID of the
event being redacted.
``unsigned`` Object Additional data added by the origin
server but not covered by the
``signatures``.
==================== ================== =======================================
@ -500,119 +500,121 @@ the state of the room.
state of the room. For example, a redacted ``join`` event will still
result in the user being considered joined.
The rules are as follows:
1. If type is ``m.room.create``, allow if and only if it has no
previous events - *i.e.* it is the first event in the room.
#. If type is ``m.room.member``:
2. If type is ``m.room.member``:
a. If ``membership`` is ``join``:
a. If ``membership`` is ``join``:
i. If the only previous event is an ``m.room.create``
and the ``state_key`` is the creator, allow.
i. If the only previous event is an ``m.room.create``
and the ``state_key`` is the creator, allow.
#. If the ``sender`` does not match ``state_key``, reject.
#. If the ``sender`` does not match ``state_key``, reject.
#. If the user's current membership state is ``invite`` or ``join``,
allow.
#. If the user's current membership state is ``invite`` or ``join``,
allow.
#. If the ``join_rule`` is ``public``, allow.
#. If the ``join_rule`` is ``public``, allow.
#. Otherwise, reject.
#. Otherwise, reject.
#. If ``membership`` is ``invite``:
b. If ``membership`` is ``invite``:
i. If the ``sender``'s current membership state is not ``join``, reject.
i. If the ``sender``'s current membership state is not ``join``, reject.
#. If *target user*'s current membership state is ``join`` or ``ban``,
reject.
#. If *target user*'s current membership state is ``join`` or ``ban``,
reject.
#. If the ``sender``'s power level is greater than or equal to the *invite
level*, allow.
#. If the ``sender``'s power level is greater than or equal to the *invite
level*, allow.
#. Otherwise, reject.
#. Otherwise, reject.
#. If ``membership`` is ``leave``:
c. If ``membership`` is ``leave``:
i. If the ``sender`` matches ``state_key``, allow if and only if that user's
current membership state is ``invite`` or ``join``.
i. If the ``sender`` matches ``state_key``, allow if and only if that user's
current membership state is ``invite`` or ``join``.
#. If the ``sender``'s current membership state is not ``join``, reject.
#. If the ``sender``'s current membership state is not ``join``, reject.
#. If the *target user*'s current membership state is ``ban``, and the
``sender``'s power level is less than the *ban level*, reject.
#. If the *target user*'s current membership state is ``ban``, and the
``sender``'s power level is less than the *ban level*, reject.
#. If the ``sender``'s power level is greater than or equal to the *kick
level*, and the *target user*'s power level is less than the
``sender``'s power level, allow.
#. If the ``sender``'s power level is greater than or equal to the *kick
level*, and the *target user*'s power level is less than the
``sender``'s power level, allow.
#. Otherwise, reject.
#. Otherwise, reject.
#. If ``membership`` is ``ban``:
d. If ``membership`` is ``ban``:
i. If the ``sender``'s current membership state is not ``join``, reject.
i. If the ``sender``'s current membership state is not ``join``, reject.
#. If the ``sender``'s power level is greater than or equal to the *ban
level*, and the *target user*'s power level is less than the
``sender``'s power level, allow.
#. If the ``sender``'s power level is greater than or equal to the *ban
level*, and the *target user*'s power level is less than the
``sender``'s power level, allow.
#. Otherwise, reject.
#. Otherwise, reject.
#. Otherwise, the membership is unknown. Reject.
e. Otherwise, the membership is unknown. Reject.
#. If the ``sender``'s current membership state is not ``join``, reject.
3. If the ``sender``'s current membership state is not ``join``, reject.
#. If the event type's *required power level* is greater than the ``sender``'s power
4. If the event type's *required power level* is greater than the ``sender``'s power
level, reject.
#. If type is ``m.room.power_levels``:
5. If type is ``m.room.power_levels``:
a. If there is no previous ``m.room.power_levels`` event in the room, allow.
a. If there is no previous ``m.room.power_levels`` event in the room, allow.
#. For each of the keys ``users_default``, ``events_default``,
``state_default``, ``ban``, ``redact``, ``kick``, ``invite``, as well as
each entry being changed under the ``events`` or ``users`` keys:
b. For each of the keys ``users_default``, ``events_default``,
``state_default``, ``ban``, ``redact``, ``kick``, ``invite``, as well as
each entry being changed under the ``events`` or ``users`` keys:
i. If the current value is higher than the ``sender``'s current power level,
reject.
i. If the current value is higher than the ``sender``'s current power level,
reject.
#. If the new value is higher than the ``sender``'s current power level,
reject.
#. If the new value is higher than the ``sender``'s current power level,
reject.
#. For each entry being changed under the ``users`` key, other than the
``sender``'s own entry:
c. For each entry being changed under the ``users`` key, other than the
``sender``'s own entry:
i. If the current value is equal to the ``sender``'s current power level,
reject.
i. If the current value is equal to the ``sender``'s current power level,
reject.
#. Otherwise, allow.
d. Otherwise, allow.
#. If type is ``m.room.redaction``:
6. If type is ``m.room.redaction``:
#. If the ``sender``'s power level is greater than or equal to the *redact
level*, allow.
a. If the ``sender``'s power level is greater than or equal to the *redact
level*, allow.
#. If the ``sender`` of the event being redacted is the same as the
``sender`` of the ``m.room.redaction``, allow.
#. If the ``sender`` of the event being redacted is the same as the
``sender`` of the ``m.room.redaction``, allow.
#. Otherwise, reject.
#. Otherwise, reject.
#. Otherwise, allow.
7. Otherwise, allow.
.. NOTE::
Some consequences of these rules:
Some consequences of these rules:
* Unless you are a member of the room, the only permitted operations (apart
from the intial create/join) are: joining a public room; accepting or
rejecting an invitation to a room.
* Unless you are a member of the room, the only permitted operations (apart
from the intial create/join) are: joining a public room; accepting or
rejecting an invitation to a room.
* To unban somebody, you must have power level greater than or equal to both
the kick *and* ban levels, *and* greater than the target user's power
level.
* To unban somebody, you must have power level greater than or equal to both
the kick *and* ban levels, *and* greater than the target user's power
level.
.. TODO-spec
I think there is some magic about 3pid invites too.
I think there is some magic about 3pid invites too.
EDUs
----
@ -628,16 +630,20 @@ destination homeserver names, and the actual nested content.
Key Type Description
======================== ============ =========================================
``edu_type`` String The type of the ephemeral message.
``origin`` String The server name sending the ephemeral
message.
``destination`` String The server name receiving the ephemeral
message.
``content`` Object Content of the ephemeral message.
======================== ============ =========================================
.. code:: json
{
"edu_type":"m.presence",
"origin":"blue",
"destination":"orange",
"content":{...}
"edu_type": "m.presence",
"origin": "blue",
"destination": "orange",
"content": {...}
}
Room State Resolution
@ -817,14 +823,14 @@ below.
Joining Rooms
-------------
When a new user wishes to join room that the user's homeserver already knows
When a new user wishes to join a room that the user's homeserver already knows
about, the homeserver can immediately determine if this is allowable by
inspecting the state of the room, and if it is acceptable, it can generate,
sign, and emit a new ``m.room.member`` state event adding the user into that
room. When the homeserver does not yet know about the room it cannot do this
inspecting the state of the room. If it is acceptable, it can generate, sign,
and emit a new ``m.room.member`` state event adding the user into that room.
When the homeserver does not yet know about the room it cannot do this
directly. Instead, it must take a longer multi-stage handshaking process by
which it first selects a remote homeserver which is already participating in
that room, and uses it to assist in the joining process. This is the remote
that room, and use it to assist in the joining process. This is the remote
join handshake.
This handshake involves the homeserver of the new member wishing to join
@ -886,44 +892,47 @@ of the information that the joining server will need. Despite its name, this
object is not a full event; notably it does not need to be hashed or signed by
the resident homeserver. The required fields are:
==================== ======== ============
Key Type Description
==================== ======== ============
``type`` String The value ``m.room.member``
``auth_events`` List An event-reference list containing the
authorization events that would allow this member
to join
``content`` Object The event content
``depth`` Integer (this field must be present but is ignored; it
may be 0)
``origin`` String The name of the resident homeserver
``origin_server_ts`` Integer A timestamp added by the resident homeserver
``prev_events`` List An event-reference list containing the immediate
predecessor events
``room_id`` String The room ID of the room
``sender`` String The user ID of the joining member
``state_key`` String The user ID of the joining member
==================== ======== ============
======================== ============ =========================================
Key Type Description
======================== ============ =========================================
``type`` String The value ``m.room.member``.
``auth_events`` List An event-reference list containing the
authorization events that would allow
this member to join.
``content`` Object The event content.
``depth`` Integer (this field must be present but is
ignored; it may be 0)
``origin`` String The name of the resident homeserver.
``origin_server_ts`` Integer A timestamp added by the resident
homeserver.
``prev_events`` List An event-reference list containing the
immediate predecessor events.
``room_id`` String The room ID of the room.
``sender`` String The user ID of the joining member.
``state_key`` String The user ID of the joining member.
======================== ============ =========================================
The ``content`` field itself must be an object, containing:
============== ====== ============
Key Type Description
============== ====== ============
``membership`` String The value ``join``
============== ====== ============
======================== ============ =========================================
Key Type Description
======================== ============ =========================================
``membership`` String The value ``join``.
======================== ============ =========================================
The joining server now has sufficient information to construct the real join
event from these protoevent fields. It copies the values of most of them,
adding (or replacing) the following fields:
==================== ======= ============
Key Type Description
==================== ======= ============
``event_id`` String A new event ID specified by the joining homeserver
``origin`` String The name of the joining homeserver
``origin_server_ts`` Integer A timestamp added by the joining homeserver
==================== ======= ============
======================== ============ =========================================
Key Type Description
======================== ============ =========================================
``event_id`` String A new event ID specified by the joining
homeserver.
``origin`` String The name of the joining homeserver.
``origin_server_ts`` Integer A timestamp added by the joining
homeserver.
======================== ============ =========================================
This will be a true event, so the joining server should apply the event-signing
algorithm to it, resulting in the addition of the ``hashes`` and ``signatures``
@ -934,20 +943,22 @@ event to an resident homeserver, by using the ``send_join`` endpoint. This is
invoked using the room ID and the event ID of the new member event.
The resident homeserver then accepts this event into the room's event graph,
and responds to the joining server with the full set of state for the newly-
and responds to the joining server with the full set of state for the newly
joined room. This is returned as a two-element list, whose first element is the
integer 200, and whose second element is an object which contains the
following keys:
============== ===== ============
Key Type Description
============== ===== ============
``auth_chain`` List A list of events giving all of the events in the auth
chains for the join event and the events in ``state``.
``state`` List A complete list of the prevailing state events at the
instant just before accepting the new ``m.room.member``
event.
============== ===== ============
======================== ============ =========================================
Key Type Description
======================== ============ =========================================
``auth_chain`` List A list of events giving all of the events
in the auth chains for the join event and
the events in ``state``.
``state`` List A complete list of the prevailing state
events at the instant just before
accepting the new ``m.room.member``
event.
======================== ============ =========================================
.. TODO-spec
- (paul) I don't really understand why the full auth_chain events are given
@ -977,17 +988,18 @@ specifying how many more events of history before that one to return at most.
The response to this request is an object with the following keys:
==================== ======== ============
Key Type Description
==================== ======== ============
``pdus`` List A list of events
``origin`` String The name of the resident homeserver
``origin_server_ts`` Integer A timestamp added by the resident homeserver
==================== ======== ============
======================== ============ =========================================
Key Type Description
======================== ============ =========================================
``pdus`` List A list of events.
``origin`` String The name of the resident homeserver.
``origin_server_ts`` Integer A timestamp added by the resident
homeserver.
======================== ============ =========================================
The list of events given in ``pdus`` is returned in reverse chronological
order; having the most recent event first (i.e. the event whose event ID is
that requested by the requestor in the ``v`` parameter).
that requested by the requester in the ``v`` parameter).
.. TODO-spec
Specify (or remark that it is unspecified) how the server handles divergent
@ -996,38 +1008,42 @@ that requested by the requestor in the ``v`` parameter).
Inviting to a room
------------------
When a user wishes to invite an other user to a local room and the other user
is on a different server, the inviting server will send a request to the invited
When a user wishes to invite another user to a local room and the other user is
on a different server, the inviting server will send a request to the invited
server::
PUT .../invite/{roomId}/{eventId}
The required fields in the JSON body are:
==================== ======== ============
Key Type Description
==================== ======== ============
``room_id`` String The room ID of the room. Must be the same as the
room ID specified in the path.
``event_id`` String The ID of the event. Must be the same as the event
ID specified in the path.
``type`` String The value ``m.room.member``.
``auth_events`` List An event-reference list containing the IDs of the
authorization events that would allow this member
to be invited in the room.
``content`` Object The content of the event.
``depth`` Integer The depth of the event.
``origin`` String The name of the inviting homeserver.
``origin_server_ts`` Integer A timestamp added by the inviting homeserver.
``prev_events`` List An event-reference list containing the IDs of the
immediate predecessor events.
``sender`` String The Matrix ID of the user who sent the original
`m.room.third_party_invite`.
``state_key`` String The Matrix ID of the invited user.
``signatures`` Object The signature of the event from the origin server.
``unsigned`` Object An object containing the properties that aren't
part of the signature's computation.
==================== ======== ============
======================== ============ =========================================
Key Type Description
======================== ============ =========================================
``room_id`` String The room ID of the room. Must be the same
as the room ID specified in the path.
``event_id`` String The ID of the event. Must be the same as
the event ID specified in the path.
``type`` String The value ``m.room.member``.
``auth_events`` List An event-reference list containing the
IDs of the authorization events that
would allow this member to be invited in
the room.
``content`` Object The content of the event.
``depth`` Integer The depth of the event.
``origin`` String The name of the inviting homeserver.
``origin_server_ts`` Integer A timestamp added by the inviting
homeserver.
``prev_events`` List An event-reference list containing the
IDs of the immediate predecessor events.
``sender`` String The Matrix ID of the user who sent the
original ``m.room.third_party_invite``.
``state_key`` String The Matrix ID of the invited user.
``signatures`` Object The signature of the event from the
origin server.
``unsigned`` Object An object containing the properties that
aren't part of the signature's
computation.
======================== ============ =========================================
Where the ``content`` key contains the content for the ``m.room.member`` event
specified in the `Client-Server API`_. Note that the ``membership`` property of
@ -1080,7 +1096,7 @@ and public keys the identity server provided as a response to the invite storage
request.
When a third-party identifier with pending invites gets bound to a Matrix ID,
the identity server will send a ``POST`` request to the ID's homeserver as described
the identity server will send a POST request to the ID's homeserver as described
in the `Invitation Storage`_ section of the Identity Service API.
The following process applies for each invite sent by the identity server:
@ -1102,13 +1118,13 @@ Where ``roomId`` is the ID of the room the invite is for.
The required fields in the JSON body are:
==================== ======= ==================================================
Key Type Description
Key Type Description
==================== ======= ==================================================
``type`` String The event type. Must be `m.room.member`.
``type`` String The event type. Must be ``m.room.member``.
``room_id`` String The ID of the room the event is for. Must be the
same as the ID specified in the path.
``sender`` String The Matrix ID of the user who sent the original
`m.room.third_party_invite`.
``m.room.third_party_invite``.
``state_key`` String The Matrix ID of the invited user.
``content`` Object The content of the event.
==================== ======= ==================================================
@ -1121,7 +1137,7 @@ The inviting homeserver will then be able to authenticate the event. It will sen
a fully authenticated event to the invited homeserver as described in the `Inviting
to a room`_ section above.
Once the invited homeserver responded with the event to which it appended its
Once the invited homeserver responds with the event to which it appended its
signature, the inviting homeserver will respond with ``200 OK`` and an empty body
(``{}``) to the initial request on ``/exchange_third_party_invite/{roomId}`` and
send the now verified ``m.room.member`` invite event to the room's members.
@ -1144,7 +1160,7 @@ It will then use these keys to verify that the ``signed`` object (in the
``third_party_invite`` object from the ``m.room.member`` event's content) was
signed by the same identity server.
Since this ``signed`` object can only be delivered once in the ``POST`` request
Since this ``signed`` object can only be delivered once in the POST request
emitted by the identity server upon binding between the third-party identifier
and the Matrix ID, and contains the invited user's Matrix ID and the token
delivered when the invite was stored, this verification will prove that the
@ -1161,10 +1177,10 @@ Every HTTP request made by a homeserver is authenticated using public key
digital signatures. The request method, target and body are signed by wrapping
them in a JSON object and signing it using the JSON signing algorithm. The
resulting signatures are added as an Authorization header with an auth scheme
of X-Matrix. Note that the target field should include the full path starting with
``/_matrix/...``, including the ``?`` and any query parameters if present, but
should not include the leading ``https:``, nor the destination server's
hostname.
of ``X-Matrix``. Note that the target field should include the full path
starting with ``/_matrix/...``, including the ``?`` and any query parameters if
present, but should not include the leading ``https:``, nor the destination
server's hostname.
Step 1 sign JSON:
@ -1360,7 +1376,7 @@ the following EDU::
messages: The messages to send. A map from user ID, to a map from device ID
to message body. The device ID may also be *, meaning all known devices
for the user.
for the user
Signing Events
@ -1492,7 +1508,7 @@ Servers can then transmit the entire event or the event with the non-essential
keys removed. If the entire event is present, receiving servers can then check
the event by computing the SHA-256 of the event, excluding the ``hash`` object.
If the keys have been redacted, then the ``hash`` object is included when
calculating the SHA-256 instead.
calculating the SHA-256 hash instead.
New hash functions can be introduced by adding additional keys to the ``hash``
object. Since the ``hash`` object cannot be redacted a server shouldn't allow

Write Preview
Loading…
Cancel
Save