In this commit, we update the logic in `updateInvoice` to allow callers
to pass in either a hint, or the setID in the update callback. This
makes things more efficient for AMP invoices with thousands of recurring
payments, as we no longer need to read out _all_ the invoices each time
we go to update the state of a few HTLCs.
This change allows us to deliver notifications to a user of all the
settled recurring payments to the same payment_addr in the order that
they occurred.
In this commit, we modify the way we handle state updates for AMP
invoices. With the current logic, once an invoice is settled, we'll
update the primary invoice state. This means that a user can't take the
same payment_addr, w/ a new set_id and pay the invoice again.
To remedy this, we'll move to instead _not_ updating the main invoice
state each time a new htlc Set (group of HTLCs according to setID) is
added. Instead, given that each HTLC stores an individual state, we'll
instead just use that directly from now on.
We also update TestSetIDIndex to account for new repeated settle AMP
logic.
In this commit, we modify the HTLC storage for AMP invoice only to be
stored within a new key prefix next to the main invoice data. We do this
as otherwise each time an AMP invoice is settled (enabled by the
following commits), we need to continually encode+decode the _entire_
set of invoices.
Instead, we store the AMP invoices within the main invoice bucket, using
the invoice number as a key prefix, with the final key being:
`invoiceNum || setID`
In this commit, we add a new type `AMPInvoiceState` that's used to store
AMP sub-invoice meta data alongside the main invoice. This will be used
to allow changes to be made to an AMP invoices without reading out all
the HTLCs. In addition, callers can use this metadata to look up
information about the current sub-invoice state of AMP HTLCs.
In this commit, we add a new `LookupInvoiceV2` method attached to the
invoice RPC sub-server. Compared to the existing version, this version
allows an invoice to be looked up by an invoice ref. This enables users
to query an AMP invoice based on a specific _set ID_, so they can get
the information related to the set of cumulative settles to that
invoices.
In the case where lnd's config struct is embedded inside another struct
(for example in lightning-terminal), the flag won't be found under its
original name. So we try to also look it up under the prefixed name.
This commit partially reverts bf27d05a.
To avoid creating multiple database transactions during a single path
finding operation, we create an explicit transaction when the cached
graph is instantiated.
We cache the source node to avoid needing to look that up for every path
finding session.
The database transaction will be nil in case of the in-memory graph.
With this commit we forward the config option for disabling the channel
graph cache as a boolean to the channeldb. But we invert its meaning to
make the flag easier to understand.
It turns out we were using the wrong matrix variable in the actual
make command and ran the same itest 6 times with no arguments, all
resulting in running the btcd test.
To avoid uploading too many files in individual requests, we zip them
first before uploading the zip itself.
The testing framework uses runtime.Goexit() when a test fails which
still allows the defer calls to execute. That's why we should use defer
to close the done channel to allow all goroutines to exit properly.
We update several of our integration tests that exercise different
scenarios with regards to the broadcast of a channel commitment
transaction with HTLCs in-flight to use the new commitment type for
channel leases. We do this to ensure we have complete coverage of said
channel commitment type. This required changing several assumptions
throughout the tests based on when we should expect sweeps to happen.
This aims to cover an edge case and also serves as an optimization of
what happens when an input that was offered to the Sweeper with an
exclusive group is re-offered without one. This happens every time we
attempt to sweep the different possible anchors of a channel at the time
of broadcast, as we don't know which commitment transaction will end up
confirming in the chain. Once the commitment transaction confirms
however, we know which anchor output to act upon and re-offer it to the
Sweeper without an exclusive group. At this point, the Sweeper will
continue to attempt sweeping the other anchor output versions even know
we know they are not valid.
In order to sweep the commitment and HTLC outputs belonging to a
script-enforced leased channel, each resolver must know whether the
additional CLTV clause on the channel initiator applies to them. To do
so, we retrieve the historical channel state stored within the database
and supplement it to the resolvers to provide them with what's needed in
order to sweep the necessary outputs and resolve their respective
contracts.
This commit modifies the channel state machine to be able to derive the
proper commitment and second-level HTLC output scripts required by the
new script-enforced leased channel commitment type.