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2
Cargo.toml
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@ -1,6 +1,6 @@
[package]
name = "cryptools"
version = "0.9.3"
version = "0.9.2"
authors = ["scoobybejesus <scoobybejesus@users.noreply.github.com>"]
edition = "2018"
description = "Command-line utility for processing cryptocurrency transactions into 'lots' and 'movements'."

8
InputFile_CSV.md
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@ -60,11 +60,11 @@ The truth is that the input file is simple to maintain once it is brought curren
The rules for successfully preparing and maintaining the input file can generally be summarized as follows:
1. The first account must be given number `1`, and each additional account must count up sequentially.
2. `Proceeds` is the value of the transaction (measured in the home currency), whether spent, received, or exchanged.
2. Margin quote account `ticker`s must be followed by an underscore and the base account ticker (i.e., `BTC_xmr`).
3. `Proceeds` is the value of the transaction (measured in the home currency), whether spent, received, or exchanged.
It is **required** in order to properly calculate income/expense/gain/loss.
3. `Proceeds` must have a period as the decimal separator (`1,000.00` not `1.000,00`) and must not contain the ticker or symbol (USD or $).
4. Margin quote account `ticker`s must be followed by an underscore and the base account ticker (i.e., `BTC_xmr`).
5. Only home currency accounts can have negative balances. Non-margin crypto accounts may not go negative at any time.
4. `Proceeds` must have a period as a decimal separator (`1,000.00` not `1.000,00`) and must not contain the ticker or symbol (USD or $).
5. Only home currency accounts can have negative balances. Crypto accounts may not go negative at any time.
(Exception: crypto margin accounts may go negative.)
As you can see, most of the rules can generally be ignored.

12
README.md
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@ -8,8 +8,6 @@ This is a command-line tool that calculates income, expenses, realized gains, re
and holding period from cryptocurrency activity and denominates the results in the user's home currency.
The default home currency is USD, but any currency can be substituted.
This tool is probably most useful for filling out a tax return or making tax planning decisions.
It is already mildly difficult to do the prep work (CSV input file, below) for using a tool like this,
so a person wanted this for a quick fix may be disappointed.
---
@ -72,8 +70,6 @@ The program is right, and your data is right, but Excel modified your data, so t
The solution is to have Excel already open, then in the ribbon's Data tab, you'll import your CSV file "From Text."
You'll choose Delimited, and Comma, and then highlight every column and choose Text as the data type.
* Currently, does not build on Windows due to the Termion crate (used for the print menu).
## Installation
1. `git clone https://github.com/scoobybejesus/cryptools.git`
@ -93,7 +89,7 @@ To skip the wizard, there are three requirements:
* The `-a` flag must be passed.
* The configuration settings you require are the same as default, or you set the appropriate environment variables, or you have a `.env` file.
`cryptools` will spit out an error message and then exit/panic if your CSV input file is malformed.
`cryptools` will panic and spit out an error message if your CSV input file is malformed.
The error message will generally tell you why.
Consider using the python script (root directory of the repo) to sanitize your input file,
in case the file contains negative numbers in parentheses, numbers with commas, or extra rows/columns.
@ -107,12 +103,6 @@ If you wish to skip the wizard but require changes to default settings, copy `.e
The `.env` file must be placed in the directory from which `cryptools` is run or a parent directory.
Alternatively, the respective environment variables may be set manually.
#### Pro Tip
Hop into `/usr/local/bin`, and run `ln -s /path/to/cryptools/target/debug/cryptools cryptools`
and `ln -s /path/to/cryptools/clean_input_csv.py clean_input_csv` to be able to run the sanitizer
script and `cryptools` from the directory where you keep your CSV Input File.
## Development state
As of fall 2020, the code does not require additional features in order for it to serve the project's founder.

497
src/crptls_lib/create_lots_mvmts.rs
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@ -14,37 +14,6 @@ use crate::crptls_lib::account::{Account, RawAccount, Lot, Movement};
use crate::crptls_lib::costing_method::{InventoryCostingMethod};
use crate::crptls_lib::decimal_utils::{round_d128_1e8};
/// This is probably the most important function in the whole program. Based on the data in the CSV Input File,
/// the `account`s and `transaction`s will be created. Once the `account`s and `transaction`s have been created, both
/// are passed to this function for `lot` processing. The `lot` processing rules can be deduced from reading the code,
/// though that implies there are no mistakes (i.e., a mistake in the code would mean that the intent of the code cannot
/// necessarily be deduced). To remove any doubt, the logic below will be made [hopefully] clear by documentation.
///
/// The first thing to bear in mind is that this function should not be thought of as generalizable to an interactive
/// program; rather, the only data this program requires is that which is included in the CSV Input File, and accordingly
/// the program will iterate through that data deterministically to produce the results that it produces. On top of that,
/// the program is assumed to produce correct results based on a correct CSV Input File. Accordingly, this code is designed
/// to fail loud and fast if it encounters unexpected things. Logging, particularly in this function, would be wise.
///
/// Second, the goal of this function is to be able to properly record all `lot`s and `lot` `movements` in a single
/// iteration. This means there is a strict order of operations required in some parts. For example, in the case of a
/// like-kind exchange `transaction` in which the basis dates and amounts of the outgoing `action record` must be transferred
/// to the basis dates and amounts of the corresponding incoming `action record`, the transaction's outgoing `action record`
/// therefore must be processed before that `transction`'s incoming `action record`. For that reason, a `transaction`'s
/// vector of `action record` indices is ordered with outgoing `action record`s always being first.
///
/// Third, `lot`s and `movement`s are created sequentially and kept in that order. Accordingly, an outgoing `movement` will
/// reduce the last `lot` first. If there is not enough in the last `lot`, the remainder will then be applied to the `lot`
/// before that, and the `lot` before that, and so on (recursively), until the amount in the `action record` has been
/// fully recorded as `lot` `movement`s. This is known as last in, first out (LIFO). Please refer to the `InventoryCostingMethod`
/// enum for the available choices if LIFO is not desirable. If a different `inventory costing method` is chosen,
/// the vector of indices is re-ordered to accomodate the paradigm that the `action record` amount will always be applied
/// to the last `lot` (i.e., if e.g. FIFO is chosen, then the index for the last `lot` will be 0 instead of length - 1.).
/// See below `vec_of_ordered_index_values`.
///
/// Fourth, this function does not contemplate any income/expense/gain/loss at all. It is solely an exercise in determining
/// and solidifying how to split (if needed) the amount in each `action record` into `movement`s that post to the appropriate
/// `lot`s. Conceptually, each `account` has a list of `lot`s, and each `lot` has a list of `movement`s.
pub(crate) fn create_lots_and_movements(
settings: &ImportProcessParameters,
raw_acct_map: &HashMap<u16, RawAccount>,
@ -60,25 +29,14 @@ pub(crate) fn create_lots_and_movements(
let like_kind_cutoff_date = settings.lk_cutoff_date;
let lk_basis_date_preserved = settings.lk_basis_date_preserved;
// This is set automatically based on how like-kind `exchange` `transaction`s work, but it could be left to user choice, in theory.
let multiple_incoming_mvmts_per_ar_due_to_lk = lk_basis_date_preserved;
let multiple_incoming_mvmts_per_ar = lk_basis_date_preserved;
// On with the creating of lots and movements.
let length = txns_map.len();
// Transactions are stored in a HashMap, and they are ordered sequentially starting at 1, so we iterate through
// that range and use the corresponding `num` to get each transaction.
for num in 1..=length {
let txn_num = num as u32;
let txn = txns_map.get(&(txn_num)).expect("Couldn't get txn. Tx num invalid?");
// The first type of transaction we consider are those where both `action record`s have an `account` that
// is a margin `account`. If so, it is an `exchange` `transaction`. `Exchange` `transaction`s for margin
// `account`s don't create a new lot for every increase. Rather, it keeps one lot per "close," which is
// to say that pair of margin `account` `lot`s will be used until a profit or loss is realized as a result
// of zeroing out both the margin `account`s by both closing the margin position AND making a transfer
// between the margin quote `account` and the corresponding spot `account` such that both margin `account`s
// now have a zero balance.
if txn.marginness(&ar_map, &raw_acct_map, &acct_map) == TxHasMargin::TwoARs {
assert_eq!(txn.transaction_type(&ar_map, &raw_acct_map, &acct_map)?, TxType::Exchange);
assert_eq!(txn.action_record_idx_vec.len(), 2);
@ -87,8 +45,6 @@ pub(crate) fn create_lots_and_movements(
let base_acct = acct_map.get(&the_raw_pair_keys.0).expect("Couldn't get acct. Raw pair keys invalid?");
let quote_acct = acct_map.get(&the_raw_pair_keys.1).expect("Couldn't get acct. Raw pair keys invalid?");
// This seems trivial, but there can be a series of buys and sells within a margin trade before the
// trade is closed for a profit or loss, so this ensures we know which `action record` is which.
let (base_ar_idx, quote_ar_idx) = get_base_and_quote_ar_idxs(
the_raw_pair_keys,
&txn,
@ -97,27 +53,19 @@ pub(crate) fn create_lots_and_movements(
&acct_map
);
// Unlike all logic following this `TxHasMargin::TwoARs` section, both `action record`s are handled at once.
let base_ar = ar_map.get(&base_ar_idx).unwrap();
let quote_ar = ar_map.get(&quote_ar_idx).unwrap();
let mut base_acct_lot_list = base_acct.list_of_lots.borrow_mut();
let mut quote_acct_lot_list = quote_acct.list_of_lots.borrow_mut();
// The number of `lot`s between the quote and base `account`s should always be equal, and there is
// an error in the code if they are not, so it is meant to panic if so.
let base_number_of_lots = base_acct_lot_list.len() as u32;
let quote_number_of_lots = quote_acct_lot_list.len() as u32;
assert_eq!(base_number_of_lots, quote_number_of_lots, "");
// The value is set just below. We use this to determine whether to create a new `lot` for each `account`.
let acct_balances_are_zero: bool;
// Though checking both is redundant, we keep the redundancy for code clarity sake. If true, the implication
// is that there has already been activity in the margin `account`s in this `transaction`.
if !base_acct_lot_list.is_empty() && !quote_acct_lot_list.is_empty() {
// Since we know there has been activity, we set the bool variable above according to whether the `account`
// balances are both zero.
let base_balance_is_zero = base_acct_lot_list.last().unwrap().get_sum_of_amts_in_lot() == d128!(0);
let quote_balance_is_zero = quote_acct_lot_list.last().unwrap().get_sum_of_amts_in_lot() == d128!(0);
if base_balance_is_zero && quote_balance_is_zero {
@ -125,9 +73,6 @@ pub(crate) fn create_lots_and_movements(
} else {
acct_balances_are_zero = false
}
// If there has supposedly been no activity in the two margin `account`s in this `transaction`, we double
// check that there are no `lot`s associated with either `account`, and then set the bool variable accordingly.
} else {
assert_eq!(true, base_acct_lot_list.is_empty(),
"One margin account's list_of_lots is empty, but its pair's isn't.");
@ -136,14 +81,12 @@ pub(crate) fn create_lots_and_movements(
acct_balances_are_zero = true
}
// The `lot` for each `account` is allocated here, and their values are set within other scopes underneath
let base_lot: Rc<Lot>;
let quote_lot: Rc<Lot>;
// If both `account`s have zero balances, new `lot`s are created. The variables created above will take
// the assignment.
if acct_balances_are_zero {
base_lot = Rc::new(
base_lot =
Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
@ -152,8 +95,10 @@ pub(crate) fn create_lots_and_movements(
account_key: the_raw_pair_keys.0,
movements: RefCell::new([].to_vec()),
}
);
quote_lot = Rc::new(
)
;
quote_lot =
Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
@ -162,18 +107,13 @@ pub(crate) fn create_lots_and_movements(
account_key: the_raw_pair_keys.1,
movements: RefCell::new([].to_vec()),
}
);
// If at least one `account` has a balance, then each must have at least one `lot`, and those are the `lot`s
// that will be assigned to the variables above. If a `lot` can't be found, the data is wrong or the code is
// wrong, and the program should panic.
)
;
} else {
base_lot = base_acct_lot_list.last().expect("Couldn't get lot. Base acct lot list empty?").clone();
quote_lot = quote_acct_lot_list.last().expect("Couldn't get lot. Quote acct lot list empty?").clone();
}
// Now that each of the `lot`s is chosen, the `movement`s can be created (which contain the `lot` number)
// and pushed onto their respective `lot`s.
let base_mvmt = Movement {
amount: base_ar.amount,
date_as_string: txn.date_as_string.clone(),
@ -206,19 +146,12 @@ pub(crate) fn create_lots_and_movements(
};
wrap_mvmt_and_push(quote_mvmt, &quote_ar, &quote_lot, &chosen_home_currency, &raw_acct_map, &acct_map);
// Self-explanatory. If new `lot`s were created, those `lot`s need to be pushed onto the `account`s.
if acct_balances_are_zero {
base_acct_lot_list.push(base_lot);
quote_acct_lot_list.push(quote_lot);
}
// Once the `movement`s have been created and pushed to the appropriate `lot` (and the `lot` pushed to the appropriate
// `account` if need be), then the transaction has been processed, and it can move onto the next.
continue
// If this isn't a margin `exchange` `transaction`, then the lot rules are different, and it continues below.
} else {
// Unlike all logic above, in the `TxHasMargin::TwoARs` section, each `action record` is handled one at a time.
for ar_num in txn.action_record_idx_vec.iter() {
let ar = ar_map.get(ar_num).unwrap();
@ -226,16 +159,10 @@ pub(crate) fn create_lots_and_movements(
let raw_acct = raw_acct_map.get(&acct.raw_key).unwrap();
let length_of_list_of_lots = acct.list_of_lots.borrow().len();
// Each home currency `account` contains a single `lot`. There is no restriction on its balance, unlike for
// crypto `account`s which must always have a non-negative balance (except for margin `account`s, where one `account`
// must necessarily go negative as the other goes postive).
if raw_acct.is_home_currency(&chosen_home_currency) {
let lot;
let new_lot_created;
// If there is no `lot`, create a new one. If there is one, use it.
if length_of_list_of_lots == 0 {
lot = Rc::new(
let lot =
Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
@ -244,16 +171,8 @@ pub(crate) fn create_lots_and_movements(
account_key: acct.raw_key,
movements: RefCell::new([].to_vec()),
}
);
new_lot_created = true;
}
else {
assert_eq!(1, length_of_list_of_lots); // Only true for home currency
lot = acct.list_of_lots.borrow_mut()[0 as usize].clone();
new_lot_created = false;
}
// Then create the movement and push it.
)
;
let whole_mvmt = Movement {
amount: ar.amount,
date_as_string: txn.date_as_string.clone(),
@ -269,35 +188,39 @@ pub(crate) fn create_lots_and_movements(
cost_basis_lk: Cell::new(d128!(0.0)),
};
wrap_mvmt_and_push(whole_mvmt, &ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
// If there is a new `lot`, push it onto the `account`
if new_lot_created { acct.list_of_lots.borrow_mut().push(lot); }
// Whether incoming or outgoing, the home currency `action record` is now recorded correctly, and then
// onto the next `action record` or `transaction`.
acct.list_of_lots.borrow_mut().push(lot);
continue
}
// Below here, every `action record`'s `account` is not home currency, so the program must know whether
// `action record` is incoming/outgoing and whether the `transaction` `TxType` is `Exchange`/`ToSelf`/`Flow`.
else {
assert_eq!(1, length_of_list_of_lots); // Only true for home currency
let lot = acct.list_of_lots.borrow_mut()[0 as usize].clone();
let whole_mvmt = Movement {
amount: ar.amount,
date_as_string: txn.date_as_string.clone(),
date: txn.date,
transaction_key: txn_num,
action_record_key: *ar_num,
cost_basis: Cell::new(d128!(0.0)),
ratio_of_amt_to_incoming_mvmts_in_a_r: d128!(1.0),
ratio_of_amt_to_outgoing_mvmts_in_a_r: Cell::new(d128!(1.0)),
lot_num: lot.lot_number,
proceeds: Cell::new(d128!(0.0)),
proceeds_lk: Cell::new(d128!(0.0)),
cost_basis_lk: Cell::new(d128!(0.0)),
};
wrap_mvmt_and_push(whole_mvmt, &ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
continue
}
}
// Note: a_r is not in home currency if here or below
let polarity = ar.direction();
let tx_type = txn.transaction_type(&ar_map, &raw_acct_map, &acct_map)?;
// The `action record` handling is different depending on whether it's incoming or outgoing.
match polarity {
Polarity::Outgoing => {
// println!("Txn: {}, outgoing {:?}-type of {} {}",
// txn.tx_number, txn.transaction_type(), ar.amount, acct.ticker);
//
// For an outgoing `action record` with a margin `account`, it can be deduced that there is a corresponding
// incoming `action record` with a non-margin `account.` This setup (two `action record`s where one's `account`
// is home currency and the other's isn't) is referred to in this context as a dual-`action record` `flow`
// `transaction`. In this case (with an outgoing `action record` with the margin `account`), it is a margin
// profit `transaction` since the corresponding incoming `action record` increases a non-margin `account` balance.
//
// In order to withdraw margin profits, the margin base `account` must have a zero balance, and the margin quote
// `account` must have a positive balance. We know, therefore, that the `account` of this `action record` is the
// quote `account`, and the `lot` treatment is simple. A single `movement` posts to the active `lot` in this
// `account`, presumably (but not definitely) zeroing it out.
if raw_acct.is_margin {
let this_acct = acct_map.get(&ar.account_key).unwrap();
let lot = this_acct.list_of_lots.borrow().last()
@ -318,9 +241,6 @@ pub(crate) fn create_lots_and_movements(
};
wrap_mvmt_and_push(whole_mvmt, &ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
continue
// For an outgoing `action record` with a non-margin `account`, this is where it is determined how to split
// the amount (if needed) into `movements` that "fit into" `lot`s.
} else {
if acct.list_of_lots.borrow().len() == 0 {
@ -330,7 +250,7 @@ pub(crate) fn create_lots_and_movements(
let list_of_lots_to_use = acct.list_of_lots.clone();
// The following returns a Vec to be iterated from beginning to end. It provides the index for the desired `lot`.
// the following returns vec to be iterated from beginning to end, which provides the index for the correct lot
let vec_of_ordered_index_values = match chosen_costing_method {
InventoryCostingMethod::LIFObyLotCreationDate => {
get_lifo_by_creation_date(&list_of_lots_to_use.borrow())}
@ -347,7 +267,8 @@ pub(crate) fn create_lots_and_movements(
for (idx, _lot) in list_of_lots.iter().enumerate() {
vec_of_indexes.insert(0, idx)
}
vec_of_indexes
let vec = vec_of_indexes;
vec
}
fn get_lifo_by_lot_basis_date(list_of_lots: &Ref<Vec<Rc<Lot>>>) -> Vec<usize> {
@ -364,7 +285,8 @@ pub(crate) fn create_lots_and_movements(
for (idx, _lot) in reordered_vec.iter().enumerate() {
vec_of_indexes.insert(0, idx)
}
vec_of_indexes
let vec = vec_of_indexes;
vec
}
fn get_fifo_by_creation_date(list_of_lots: &Ref<Vec<Rc<Lot>>>) -> Vec<usize> {
@ -372,7 +294,8 @@ pub(crate) fn create_lots_and_movements(
for (idx, _lot) in list_of_lots.iter().enumerate() {
vec_of_indexes.push(idx)
}
vec_of_indexes
let vec = vec_of_indexes;
vec
}
fn get_fifo_by_lot_basis_date(list_of_lots: &Ref<Vec<Rc<Lot>>>) -> Vec<usize> {
@ -389,21 +312,13 @@ pub(crate) fn create_lots_and_movements(
for (idx, _lot) in reordered_vec.iter().enumerate() {
vec_of_indexes.push(idx)
}
vec_of_indexes
let vec = vec_of_indexes;
vec
}
// TODO: Consider whether a for-loop can track the index more cleanly
// Now that the index values of each `lot` are in the appropriate order, the starting point (index 0)
// and the starting lot_index can be chosen in preparation for the recursive `fit_into_lots` function.
// If the tentative `movement` must be reduced to fit into the tentative `lot`, a revised `movement` will be created
// using an amount that will be reduced to the exact amount to fit into the `lot`. After the revised `movement`
// is pushed to the `lot`, the index position will be incremented to provide a new `lot_index`, a new tentative
// `lot` will be chosen, and the remainder of the amount will be used in a new tentative `movement`, and so on
// until the entire `action record` amount has been put into a `movement` and posted to a `lot`.
let index_position: usize = 0;
let lot_index = vec_of_ordered_index_values[index_position];
// Now that the tentative `lot` can be chosen, it is, and a tentative `movement` is created.
let lot_to_use = list_of_lots_to_use.borrow()[lot_index].clone();
let whole_mvmt = Movement {
amount: ar.amount,
@ -420,7 +335,6 @@ pub(crate) fn create_lots_and_movements(
cost_basis_lk: Cell::new(d128!(0.0)),
};
// Beginning here, it will recursively attempt to fit the outgoing amount into `lot`s.
fit_into_lots(
txn_num,
*ar_num,
@ -433,43 +347,21 @@ pub(crate) fn create_lots_and_movements(
&raw_acct_map,
&acct_map,
);
// Once the `action record`'s outgoing amount has been "consumed", the recording of this
// `action record` is complete.
continue
}
}
// Incoming `action records` have different requirements for posting to `lot`s. Unlike for outgoing
// `action records`, there is often no need to consider how to fit these into lots because in most cases
// the amount of an incoming `action record` will be in a single movement that posts to a new `lot`.
// There are three exceptions to this which add many lines of code that aren't terribly easy to read. :)
// Exception #1: `ToSelf` transactions. Cost basis and basis date must be preserved for currency
// owned by the user and transferred to another one of their accounts.
// Exception #2: Like-kind `exchange` `transaction`s must preserve the basis and the basis date
// of the corresponding outgoing `action record`.
// Exception #3: Dual-`action record` `flow` `transaction`s that occur during a period of like-kind
// `exchange` will also inherit an implied/imputed basis date based on the date of the 'buys' in the
// base margin `account`. The special treatment occurs for an incoming `flow` `action record` whose
// `account` is non-margin.
Polarity::Incoming => {
// println!("Txn: {}, Incoming {:?}-type of {} {}",
// txn.tx_number, txn.transaction_type(), ar.amount, acct.ticker);
match tx_type {
TxType::Flow => {
let lot: Rc<Lot>;
let mvmt: Movement;
// For an incoming `flow` `action record` with a margin account, the implication is that
// this is a margin loss `transaction`. The corresponding outgoing `flow` `action record`
// is where the loss is reflected. This `action record` is simply reflecting the transfer
// of funds into the quote margin account, presumably paying off the loan and bringing it
// to a zero balance.
if raw_acct.is_margin {
let this_acct = acct_map.get(&ar.account_key).unwrap();
let lot_list = this_acct.list_of_lots.borrow_mut();
lot = lot_list.last().unwrap().clone();
mvmt = Movement {
let mvmt = Movement {
amount: ar.amount,
date_as_string: txn.date_as_string.clone(),
date: txn.date,
@ -484,21 +376,12 @@ pub(crate) fn create_lots_and_movements(
cost_basis_lk: Cell::new(d128!(0.0)),
};
wrap_mvmt_and_push(mvmt, &ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
// Since a margin account is being posted new, a new lot is not created. Once the `movement`
// has been pushed to the `lot`, the recording of the `action record` is complete, and it's
// onto the next
continue
// Now the incoming `flow` `action record`s with a non-margin account are handled.
} else {
// The base case is a single-`action record` `flow` `transaction` where a `lot` is created (assigned),
// a `movement` is created (assigned), and the `movement` is pushed to the `lot`. Note that the `lot` variable
// was allocated above, and this `if` section of code merely assigns this `lot` to that variable.
// The `lot` isn't pushed to the `account` until after this whole `if/else` section.
let mvmt: Movement;
if txn.action_record_idx_vec.len() == 1 {
lot = Rc::new(
lot =
Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
@ -508,7 +391,8 @@ pub(crate) fn create_lots_and_movements(
account_key: acct.raw_key,
movements: RefCell::new([].to_vec()),
}
);
)
;
mvmt = Movement {
amount: ar.amount,
date_as_string: txn.date_as_string.clone(),
@ -523,30 +407,12 @@ pub(crate) fn create_lots_and_movements(
proceeds_lk: Cell::new(d128!(0.0)),
cost_basis_lk: Cell::new(d128!(0.0)),
};
// The more complicated case is the dual-`action record` `flow` `transaction`.
} else {
// A `flow` `transaction` usually has 1 `action record`. In this special case, it'll have 2, but no more.
assert_eq!(txn.action_record_idx_vec.len(), 2);
// The theory in this `if` block is that a series of margin trades culminating in a margin profit during
// a period of like-kind exchange treatment should/could carry their basis and basis date, just like a traditional
// trade would. The software allocates the size of the new `movement`s proportionally based on the size of every
// margin buy in the `lot` in relation to all the margin buys in the the `lot`; and for each `movement` that it
// creates, that new `movement` is given the basis date of the respective margin-buy's `movement`.
// (For those savvy, you noted that since margin trades produce no gain/loss, there is no basis to inherit.)
if multiple_incoming_mvmts_per_ar_due_to_lk && txn.date <= like_kind_cutoff_date {
// First, two variables are allocated to hold some intermediate results that will be used to determine the
// size of `movement`(s) and how many `lot`s are needed.
// The `positive_mvmt_list` is for accumulating the margin-buy `movement`(s) that occurred during the course
// of the margin trade that is now ending in a profit. And `total_positive_amounts` accounts for the total
// amount of those margin-buys.
// create list of incoming/positive amounts(mvmts) in margin lot, add them
let mut positive_mvmt_list: Vec<Rc<Movement>> = [].to_vec();
let mut total_positive_amounts = d128!(0);
// This is necessary to find the base account, because the margin-buys are reflected in this account.
let (base_acct_key, quote_acct_key) = get_base_and_quote_acct_for_dual_actionrecord_flow_tx(
txn_num,
&ar_map,
@ -557,31 +423,23 @@ pub(crate) fn create_lots_and_movements(
let base_acct = acct_map.get(&base_acct_key).unwrap();
let base_acct_lot = base_acct.list_of_lots.borrow().last().unwrap().clone();
// It should be apparent that the relevant `lot` has been selected, and its `movement` are now iterated
// over for capturing its `movement`s (for their date) and adding up their amounts.
for base_acct_mvmt in base_acct_lot.movements.borrow().iter() {
if base_acct_mvmt.amount > d128!(0) {
// TODO: generalize this to work with margin shorts as well
for mvmt in base_acct_lot.movements.borrow().iter() {
if mvmt.amount > d128!(0) {
// println!("In lot# {}, positive mvmt amount: {} {},",
// base_acct_lot.lot_number,
// mvmt.borrow().amount,
// base_acct_lot.account.raw.ticker);
total_positive_amounts += base_acct_mvmt.amount;
positive_mvmt_list.push(base_acct_mvmt.clone())
total_positive_amounts += mvmt.amount;
positive_mvmt_list.push(mvmt.clone())
}
}
// These variables track relevant usage in the following for-loop. These are used after the for-loop
// when creating the final `movement`.
let mut amounts_used = d128!(0);
let mut percentages_used = d128!(0);
// Here, the margin-buys are iterated over while creating proportionally-sized new `movement`s.
// Note that this for-loop excludes the final positive `movement` because rounding must be taken into
// account (the effect of rounding must be eliminated) when determining the amount of the final `movement`.
// The `inner_lot` and `inner_mvmt` were named this was to reflect they are created and wrapped/pushed
// only inside this iteration of `positive_mvmt_list`.
for pos_mvmt in positive_mvmt_list.iter().take(positive_mvmt_list.len()-1) {
let inner_lot = Rc::new(
let inner_lot =
Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
@ -613,20 +471,19 @@ pub(crate) fn create_lots_and_movements(
percentages_used += percentage_used;
}
// Now that the intermediate `lot`s and `movement`s have been taken care of, the `lot` and `movement` that were
// allocated after matching on `flow` can be assigned the following values, and which will be wrapped and
// pushed further down.
let final_pos_mvmt = positive_mvmt_list.last().expect("After exluding last mvmt from for-loop above, expected last mvmt.");
lot = Rc::new(
let final_mvmt = positive_mvmt_list.last().unwrap();
lot =
Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
date_for_basis_purposes: final_pos_mvmt.date,
date_for_basis_purposes: final_mvmt.date,
lot_number: acct.list_of_lots.borrow().len() as u32 + 1,
account_key: acct.raw_key,
movements: RefCell::new([].to_vec()),
}
);
)
;
mvmt = Movement {
amount: round_d128_1e8(&(ar.amount - amounts_used)),
date_as_string: txn.date_as_string.clone(),
@ -641,56 +498,13 @@ pub(crate) fn create_lots_and_movements(
proceeds_lk: Cell::new(d128!(0.0)),
cost_basis_lk: Cell::new(d128!(0.0)),
};
// Back to "base case" style treatment, if this is an incoming dual-`action record` `flow` `transaction`, but either
// (a) like-kind `exchange` treatment was not elected or (b) the `transaction` date is after the like-kind treatment period,
// then just a single `movement` is created for eventual pushing into a single new `lot`.
} else {
lot = Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
date_for_basis_purposes: txn.date,
lot_number: length_of_list_of_lots as u32 + 1,
account_key: acct.raw_key,
movements: RefCell::new([].to_vec()),
}
);
mvmt = Movement {
amount: ar.amount,
date_as_string: txn.date_as_string.clone(),
date: txn.date,
transaction_key: txn_num,
action_record_key: *ar_num,
cost_basis: Cell::new(d128!(0.0)),
ratio_of_amt_to_incoming_mvmts_in_a_r: d128!(1.0),
ratio_of_amt_to_outgoing_mvmts_in_a_r: Cell::new(d128!(1.0)),
lot_num: lot.lot_number,
proceeds: Cell::new(d128!(0.0)),
proceeds_lk: Cell::new(d128!(0.0)),
cost_basis_lk: Cell::new(d128!(0.0)),
};
}
}
// Here, finally, the lot and movement allocated at the top of `match TxType::Flow` have been set
// and can be wrapped/pushed, at which point this `action record` is complete and it's onto the next.
wrap_mvmt_and_push(mvmt, &ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
acct.list_of_lots.borrow_mut().push(lot);
continue
}
}
TxType::Exchange => {
// These will only initialize if the outer `if` or inner `if` resolve to false
let whole_mvmt;
let lot;
// The first check is for like-kind exchange treatment is applicable to the `transaction`:
if multiple_incoming_mvmts_per_ar_due_to_lk && (txn.date <= like_kind_cutoff_date) {
// If lk is applicable, determine whether to `process_multiple..`,
// based on if each `action record` has a home currency `account`.
let both_are_non_home_curr: bool;
let og_ar = ar_map.get(txn.action_record_idx_vec.first().unwrap()).unwrap();
let og_acct = acct_map.get(&og_ar.account_key).unwrap();
@ -700,7 +514,7 @@ pub(crate) fn create_lots_and_movements(
both_are_non_home_curr = !og_raw_acct.is_home_currency(&chosen_home_currency)
&& !ic_raw_acct.is_home_currency(&chosen_home_currency);
if both_are_non_home_curr {
if both_are_non_home_curr && multiple_incoming_mvmts_per_ar && (txn.date <= like_kind_cutoff_date) {
process_multiple_incoming_lots_and_mvmts(
txn_num,
&og_ar,
@ -713,40 +527,11 @@ pub(crate) fn create_lots_and_movements(
&ar_map,
);
continue
// If lk treatment is applicable but one `account` is home currency, then use a single `lot` and `movement`
} else {
lot = Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
date_for_basis_purposes: txn.date,
lot_number: length_of_list_of_lots as u32 + 1,
account_key: acct.raw_key,
movements: RefCell::new([].to_vec()),
}
);
whole_mvmt = Movement {
amount: ar.amount,
date_as_string: txn.date_as_string.clone(),
date: txn.date,
transaction_key: txn_num,
action_record_key: *ar_num,
cost_basis: Cell::new(d128!(0.0)),
ratio_of_amt_to_incoming_mvmts_in_a_r: d128!(1.0),
ratio_of_amt_to_outgoing_mvmts_in_a_r: Cell::new(d128!(1.0)),
lot_num: lot.lot_number,
proceeds: Cell::new(d128!(0.0)),
proceeds_lk: Cell::new(d128!(0.0)),
cost_basis_lk: Cell::new(d128!(0.0)),
};
}
}
// For an incoming `action record` in an `exchange` `transaction` where there's no like-kind
// treatment, simply create a new `lot`, create a new `movement`, and wrap/push.
else {
lot = Rc::new(
let lot =
Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
date_of_first_mvmt_in_lot: txn.date,
@ -755,8 +540,9 @@ pub(crate) fn create_lots_and_movements(
account_key: acct.raw_key,
movements: RefCell::new([].to_vec()),
}
);
whole_mvmt = Movement {
)
;
let whole_mvmt = Movement {
amount: ar.amount,
date_as_string: txn.date_as_string.clone(),
date: txn.date,
@ -770,22 +556,15 @@ pub(crate) fn create_lots_and_movements(
proceeds_lk: Cell::new(d128!(0.0)),
cost_basis_lk: Cell::new(d128!(0.0)),
};
}
// The `lot` and `whole_mvmt` variables have been initialized/assigned
wrap_mvmt_and_push(whole_mvmt, &ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
acct.list_of_lots.borrow_mut().push(lot);
continue
}
}
TxType::ToSelf => {
// Based on experience, and considering how `transaction`s are constructed, this should never happen.
if raw_acct.is_margin {
println!("FATAL: Consult developer. Found margin actionrecord in ToSelf transaction:\n{:#?}", txn);
std::process::exit(1);
// When transferring to oneself, the amounts should carry over proportionally (considering the incoming `movement`
// is likely to be less than the outgoing `movement` due to transaction fees), as should the basis date of each of the
// outgoing `movement`s.
} else {
process_multiple_incoming_lots_and_mvmts(
txn_num,
@ -801,27 +580,29 @@ pub(crate) fn create_lots_and_movements(
}
continue
}
} // end for match::TxType
} // end for Polarity::Incoming
} // end for match::Polarity
} // end for ar in txn.actionrecords (ar_num in tx.ar_idx_vec)
}
}
}
} // end for ar in txn.actionrecords
} // end of tx does not have marginness of TwoARs
} // end for txn in transactions (txn_num in txn_map.len())
} // end for txn in transactions
Ok(txns_map)
}
/// Preface: this ONLY works for a dual-`action record` `transaction` when the `account` of the incoming
/// `action record` is a non-margin `account`. Also, we know that the corresponding outgoing `action
/// record` is the quote account (logically, it must be).
/// Chooses the outgoing `ActionRecord`. Gets a `Vec` of its `Movement`s. Chooses its
/// first/earliest `Movement`. Gets that `Movement`'s `ActionRecord`. Gets that
/// `ActionRecord`'s `Account`. Gets the first `Lot` from that `Account`'s
/// `list_of_lots`. Get the `Movement`s from that `Lot`. Takes the first `Movement`
/// and gets that `Movement`'s `Transaction`. Gets base and quote keys from that.println!
///
/// This function works off of an incoming `action record` for a non-margin account. It knows the outgoing
/// `action record` of this `transaction` has a margin account, so it first will
/// choose that `action record`, and then it'll immediately choose the margin `account` in question.
/// Since the margin pair never changes (the same base `account` and same quote `account` interact exclusively
/// with eachother), it can immediately get the first `lot` in the `account` (to ensure it exists).
/// Then it gets a list of `movement`s in that first `lot`. Then, to ensure it's getting a `transaction`
/// where both `action record`s have a margin account, it chooses the first `movement`. And then it
/// takes that `transaction` to analyze for base `account` and quote `account`.
/// The rationale for this was to be able to determine whether this should be classifiable
/// as a Long or a Short. As it turns out, the two are basically indistinguishable and/or
/// interchangeable, so this `fn` should be simplified.
///
/// Just kidding. You weren't paying attention, were you? This is a dual `ActionRecord`
/// `Flow` `Transaction`, meaning this is most likely recording a margin profit or a
/// margin loss. The `fn` was designed this was to definitely work for a margin profit,
/// but it might could use reworking to be generalized for margin profit or loss.
fn get_base_and_quote_acct_for_dual_actionrecord_flow_tx(
txn_num: u32,
ar_map: &HashMap<u32, ActionRecord>,
@ -833,32 +614,35 @@ fn get_base_and_quote_acct_for_dual_actionrecord_flow_tx(
let txn = txns_map.get(&txn_num).expect("Couldn't get txn. Tx num invalid?");
let og_flow_ar = ar_map.get(txn.action_record_idx_vec.first().unwrap()).unwrap();
let og_flow_ar_acct = acct_map.get(&og_flow_ar.account_key).unwrap();
let og_flow_ar_acct_first_lot = &og_flow_ar_acct.list_of_lots.borrow()[0];
let first_lot_mvmts = og_flow_ar_acct_first_lot.movements.borrow();
let first_lot_mvmts_first_mvmt = &first_lot_mvmts.first().unwrap();
let txn_of_first_lot_mvmts_first_mvmt = txns_map.get(&first_lot_mvmts_first_mvmt.transaction_key).unwrap();
let (base_key,quote_key) = txn_of_first_lot_mvmts_first_mvmt.get_base_and_quote_raw_acct_keys(
let og_ar_mvmts_list = &og_flow_ar.get_mvmts_in_ar_in_lot_date_order(acct_map, txns_map);
let og_ar_list_first_mvmt = &og_ar_mvmts_list.first().unwrap(); // TODO: then this takes the one mvmt
let og_ar_list_first_mvmt_ar = ar_map.get(&og_ar_list_first_mvmt.action_record_key).unwrap();
let og_ar_list_first_mvmt_ar_acct = acct_map.get(&og_ar_list_first_mvmt_ar.account_key).unwrap();
let og_mvmt_lot = &og_ar_list_first_mvmt_ar_acct.list_of_lots.borrow()[(og_ar_list_first_mvmt.lot_num - 1) as usize];
let og_mvmt_lot_mvmts = og_mvmt_lot.movements.borrow();
let og_mvmt_lot_first_mvmt = &og_mvmt_lot_mvmts.first().unwrap();
let txn_of_og_mvmt_lot_first_mvmt = txns_map.get(&og_mvmt_lot_first_mvmt.transaction_key).unwrap();
let (base_key,quote_key) = txn_of_og_mvmt_lot_first_mvmt.get_base_and_quote_raw_acct_keys(
ar_map,
&raw_acct_map,
&acct_map)?;
&acct_map)?; // TODO: should this panic on margin loss? As of 2019-10-02, no. Should test for margin shorting too, though.
Ok((base_key, quote_key))
}
/// Returns the index in the `action records` Hashmap of the base and quote `action record`s.
fn get_base_and_quote_ar_idxs(
base_and_quote_keys: (u16,u16),
pair_keys: (u16,u16),
txn: &Transaction,
ars: &HashMap<u32, ActionRecord>,
raw_acct_map: &HashMap<u16, RawAccount>,
acct_map: &HashMap<u16, Account>
) -> (u32, u32) {
) -> (u32, u32){
let incoming_ar = ars.get(&txn.action_record_idx_vec[0]).unwrap();
let incoming_acct = acct_map.get(&incoming_ar.account_key).unwrap();
let raw_ic_acct = raw_acct_map.get(&incoming_acct.raw_key).unwrap();
let compare = raw_acct_map.get(&base_and_quote_keys.0).unwrap(); // key.0 is base, and key.1 is quote
let compare = raw_acct_map.get(&pair_keys.0).unwrap(); // key.0 is base, and key.1 is quote
if raw_ic_acct == compare {
(txn.action_record_idx_vec[0], txn.action_record_idx_vec[1])
@ -867,8 +651,6 @@ fn get_base_and_quote_ar_idxs(
}
}
/// Every time a new `movement` is created, it must be wrapped in an `Rc` because it is owned both by the
/// `lot` (which itself is owned by an `account`) and by the `action record` from which it was derived.
fn wrap_mvmt_and_push(
this_mvmt: Movement,
ar: &ActionRecord,
@ -881,19 +663,11 @@ fn wrap_mvmt_and_push(
let acct = acct_map.get(&ar.account_key).unwrap();
let raw_acct = raw_acct_map.get(&acct.raw_key).unwrap();
// For outgoing `action record`s, this is an optimal spot for setting this struct field. Interestingly,
// at the time of writing this note, this ratio isn't actually used. The `ratio_of_amt_to_incoming_mvmts_in_a_r`
// field, by contrast, is extremely important when deterministically setting basis and proceeds.
// TODO: Consider commenting or deleting this code block (and the two vars above).
if ar.direction() == Polarity::Outgoing && !raw_acct.is_home_currency(chosen_home_currency) {
let ratio = this_mvmt.amount / ar.amount;
this_mvmt.ratio_of_amt_to_outgoing_mvmts_in_a_r.set(round_d128_1e8(&ratio));
}
// This is the type of thing that should probably be changed into a test or an operation that is only
// run under certain circumstances, since it is double-checking something that prior code should have
// already taken care of, which is that the value has been rounded to 8 digits of precision already.
// TODO: Consider deleting this assertion.
let amt = this_mvmt.amount;
let amt2 = round_d128_1e8(&amt);
assert_eq!(amt, amt2);
@ -903,11 +677,6 @@ fn wrap_mvmt_and_push(
ar.movements.borrow_mut().push(mvmt);
}
/// Recursively check the balance in a `lot`, and if not zero then create a `movement` that is the lesser of
/// the `mvmt_to_fit` or the balance of the `lot`; and if the `lot` balance is smaller than the amount of
/// the `mvmt_to_fit`, then create a `movement` that will fit into that `lot` and push it to that `lot`; and
/// then select the next `lot` and replace the `mvmt_to_fit` with a new `mvmt_to_fit` (reduced by the one
/// that was pushed to the previous `lot`), and recursively check...
fn fit_into_lots(
txn_num: u32,
spawning_ar_key: u32,
@ -921,16 +690,16 @@ fn fit_into_lots(
acct_map: &HashMap<u16, Account>,
) {
let spawning_ar = ar_map.get(&spawning_ar_key).unwrap();
let acct = acct_map.get(&spawning_ar.account_key).unwrap();
let ar = ar_map.get(&spawning_ar_key).unwrap();
let acct = acct_map.get(&ar.account_key).unwrap();
let raw_acct = raw_acct_map.get(&acct.raw_key).unwrap();
assert_eq!(raw_acct.is_home_currency(&chosen_home_currency), false);
let spawning_ar = ar_map.get(&spawning_ar_key).unwrap();
let mut current_index_position = index_position;
// Get the `lot`, and then get its balance to see how much room there is
let lot = mvmt_to_fit.get_lot(acct_map, ar_map);
let mut mut_sum_of_mvmts_in_lot: d128 = d128!(0.0);
for movement in lot.movements.borrow().iter() {
mut_sum_of_mvmts_in_lot += movement.amount;
@ -938,8 +707,7 @@ fn fit_into_lots(
let sum_of_mvmts_in_lot = mut_sum_of_mvmts_in_lot;
assert!(sum_of_mvmts_in_lot >= d128!(0.0));
// If the `lot` is "full", try the next
if sum_of_mvmts_in_lot == d128!(0.0) {
if sum_of_mvmts_in_lot == d128!(0.0) { // If the lot is "full", go to the next
current_index_position += 1;
assert!(current_index_position < vec_of_ordered_index_values.len());
let lot_index = vec_of_ordered_index_values[current_index_position];
@ -972,13 +740,11 @@ fn fit_into_lots(
);
return;
}
// There is a balance in the `lot`, so check if the tentative amount of the `movement` will fit
assert!(sum_of_mvmts_in_lot > d128!(0.0));
let remainder_amt = mvmt_to_fit.amount;
let does_remainder_fit: bool = (sum_of_mvmts_in_lot + remainder_amt) >= d128!(0.0);
// If the remainder fits, the `movement` is wrapped/pushed, and the recursion is complete
if does_remainder_fit {
let remainder_that_fits = Movement {
amount: mvmt_to_fit.amount,
@ -995,11 +761,9 @@ fn fit_into_lots(
cost_basis_lk: Cell::new(d128!(0.0)),
};
wrap_mvmt_and_push(remainder_that_fits, &spawning_ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
return
return // And we're done
}
// The `movement` doesn't fit in the present single `lot`, but some does. Create a `movement` that will fit,
// wrap/push it, and then continue to handle the remainder.
// Note: at this point, we know the movement doesn't fit in a single lot & sum_of_mvmts_in_lot > 0
let mvmt = RefCell::new(mvmt_to_fit);
let mvmt_rc = Rc::from(mvmt);
@ -1018,13 +782,13 @@ fn fit_into_lots(
cost_basis_lk: Cell::new(d128!(0.0)),
};
wrap_mvmt_and_push(mvmt_that_fits_in_lot, &spawning_ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
let remainder_amt_to_recurse = remainder_amt + sum_of_mvmts_in_lot;
// println!("Remainder amount to recurse: {}", remainder_amt_to_recurse);
if vec_of_ordered_index_values.len() == current_index_position + 1 {
println!("FATAL: Txn {} on {} spending {} {} has run out of lots to spend from.",
txn_num, lot.date_as_string, spawning_ar.amount, raw_acct.ticker);
let bal = if acct.get_sum_of_amts_in_lots() == d128!(0) { "0.00000000".to_string() }
else { acct.get_sum_of_amts_in_lots().to_string() };
println!("Account balance is only: {}", bal);
txn_num, lot.date_as_string, ar.amount, raw_acct.ticker);
println!("Account balance is only: {}", acct.get_sum_of_amts_in_lots());
std::process::exit(1);
}
@ -1032,10 +796,6 @@ fn fit_into_lots(
let lot_index = vec_of_ordered_index_values[current_index_position];
let newly_chosen_lot = list_of_lots_to_use.borrow()[lot_index].clone();
// Take tentative `movement` amount (negative) and sum with the amount just used from the
// `mvmt_that_fits_in_lot` to come up with the unused portion of this `action record` amount.
let remainder_amt_to_recurse = remainder_amt + sum_of_mvmts_in_lot;
// println!("Remainder amount to recurse: {}", remainder_amt_to_recurse);
let remainder_mvmt_to_recurse = Movement {
amount: remainder_amt_to_recurse.reduce(),
date_as_string: mvmt_rc.borrow().date_as_string.clone(),
@ -1050,8 +810,7 @@ fn fit_into_lots(
proceeds_lk: Cell::new(d128!(0.0)),
cost_basis_lk: Cell::new(d128!(0.0)),
};
// After applying some of the `action record`'s amount to another `lot`, take the remainder and recurse
assert!(current_index_position < vec_of_ordered_index_values.len());
fit_into_lots(
txn_num,
spawning_ar_key,
@ -1066,9 +825,6 @@ fn fit_into_lots(
);
}
/// This is for the surprisingly common occasion (not surprising once you think about it) when an
/// incoming `action record` must be split into multiple `movement`s and therefore multiple `lot`s.
/// This happens every time a user transfers from one account of theirs to another.
fn process_multiple_incoming_lots_and_mvmts(
txn_num: u32,
outgoing_ar: &ActionRecord,
@ -1090,10 +846,11 @@ fn process_multiple_incoming_lots_and_mvmts(
let mut all_but_last_incoming_mvmt_ratio = d128!(0.0);
// println!("Txn date: {}. Outgoing mvmts: {}, Outgoing amount: {}", txn.date, outgoing_ar.movements.borrow().len(), outgoing_ar.amount);
let list_of_mvmts_of_outgoing_ar = outgoing_ar.get_mvmts_in_ar_in_lot_date_order(acct_map, txns_map);
let list_of_mvmts_of_outgoing_ar_len = list_of_mvmts_of_outgoing_ar.len();
let final_og_mvmt = list_of_mvmts_of_outgoing_ar.last().unwrap();
let final_mvmt = list_of_mvmts_of_outgoing_ar.last().unwrap();
// First iteration, for all but final movement
for outgoing_mvmt in list_of_mvmts_of_outgoing_ar.iter().take(list_of_mvmts_of_outgoing_ar_len - 1) {
for outgoing_mvmt in list_of_mvmts_of_outgoing_ar
.iter()
.take(outgoing_ar.get_mvmts_in_ar_in_lot_date_order(acct_map, txns_map).len() - 1) {
let ratio_of_outgoing_mvmt_to_total_ar = outgoing_mvmt.amount / outgoing_ar.amount; // Negative divided by negative is positive
// println!("Ratio of outgoing amt to total actionrecord amt: {:.8}", ratio_of_outgoing_to_total_ar);
let tentative_incoming_amt = ratio_of_outgoing_mvmt_to_total_ar * incoming_ar.amount;
@ -1105,7 +862,7 @@ fn process_multiple_incoming_lots_and_mvmts(
let this_acct = acct_of_incoming_ar;
let length_of_list_of_lots: usize = this_acct.list_of_lots.borrow().len();
let inherited_date = outgoing_mvmt.get_lot(acct_map, ar_map).date_of_first_mvmt_in_lot;
let inner_lot =
let lot =
Rc::new(
Lot {
date_as_string: txn.date_as_string.clone(),
@ -1126,7 +883,7 @@ fn process_multiple_incoming_lots_and_mvmts(
cost_basis: Cell::new(d128!(0.0)),
ratio_of_amt_to_incoming_mvmts_in_a_r: round_d128_1e8(&ratio_of_outgoing_mvmt_to_total_ar),
ratio_of_amt_to_outgoing_mvmts_in_a_r: Cell::new(d128!(1.0)),
lot_num: inner_lot.lot_number,
lot_num: lot.lot_number,
proceeds: Cell::new(d128!(0.0)),
proceeds_lk: Cell::new(d128!(0.0)),
cost_basis_lk: Cell::new(d128!(0.0)),
@ -1135,15 +892,15 @@ fn process_multiple_incoming_lots_and_mvmts(
// incoming_mvmt.amount, acct_incoming_ar.ticker, acct_incoming_ar.account_num);
all_but_last_incoming_mvmt_ratio += round_d128_1e8(&ratio_of_outgoing_mvmt_to_total_ar);
all_but_last_incoming_mvmt_amt += incoming_mvmt.amount;
wrap_mvmt_and_push(incoming_mvmt, &incoming_ar, &inner_lot, &chosen_home_currency, &raw_acct_map, &acct_map);
this_acct.list_of_lots.borrow_mut().push(inner_lot);
wrap_mvmt_and_push(incoming_mvmt, &incoming_ar, &lot, &chosen_home_currency, &raw_acct_map, &acct_map);
this_acct.list_of_lots.borrow_mut().push(lot);
}
// Second iteration, for final movement
let corresponding_incoming_amt = incoming_ar.amount - all_but_last_incoming_mvmt_amt;
assert!(corresponding_incoming_amt > d128!(0.0));
let this_acct = acct_of_incoming_ar;
let length_of_list_of_lots = this_acct.list_of_lots.borrow().len();
let inherited_date = final_og_mvmt.get_lot(acct_map, ar_map).date_of_first_mvmt_in_lot;
let inherited_date = final_mvmt.get_lot(acct_map, ar_map).date_of_first_mvmt_in_lot;
let lot =
Rc::new(
Lot {