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test: golden-pin the four de-duplicated indicators across all bindings (#305)

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* test: golden-pin the four de-duplicated indicators across all C-ABI bindings

Extend gen_golden to emit reference fixtures for AdOscillator (ADOSC),
IntradayIntensity, AwesomeOscillatorHistogram and AverageDrawdown, and replay
them through the Go / C# / Java / R golden harnesses so their corrected
definitions stay bit-identical to the Rust core in every binding. Go suite
verified locally (gcc 13 + cgo): all 9 golden tests pass; C#/Java/R use the
same fixtures and harness pattern (CI-verified). First step of extending the
golden coverage beyond the seven archetype representatives.

* test: golden-pin the scalar-output tranche (308 indicators) against Rust

Extend gen_golden with a generated emit_scalar that writes reference fixtures
for every single-f64-output indicator (scalar / candle / pairwise input) using
valid constructor params, and add a manifest-driven generic Python golden
replay that reconstructs each by its native name and checks it bit-for-bit
against the Rust output. 308 indicators now value-tied to the Rust core in
Python (pytest: 308/308). Takes golden coverage from the 7 archetype
representatives to 308+ of the catalogue.

22 scalar indicators with non-default constructor constraints are skipped by
gen_golden for now (logged), as are non-f64-output ones; multi-output, exotic
inputs and the per-indicator arg arities of the C-ABI/Node replays follow.
Generated + verified locally with the full toolchain.

* test: golden-pin the multi-output tranche (70 indicators) in Python

Add a generated emit_multi to gen_golden (per-indicator Output-field access,
one CSV column per field) and a manifest-driven generic Python replay that
checks every field of each multi-output indicator against the Rust reference.
70 multi-output indicators now value-tied to Rust in Python; combined with the
scalar tranche, 378 indicators are golden-pinned. 8 multi with non-default
param constraints and 5 with non-f64 Output fields (Option/Vec/i64) are
deferred. pytest green.

* test(golden): add 30 constraint-tuned indicators to scalar/multi golden suite

Emit golden fixtures for 22 scalar-output and 8 multi-output indicators
whose constructors need non-default parameters (Alma, Jma, Psar, T3, Mama,
DoubleBollinger, ZigZag, ...). All 408 fixtures replay bit-for-bit through
the Python binding.

* test(golden): cover 36 missed scalar/multi indicators

Add 26 single-output (LinearRegression family, HT cycle, Candle
volatility estimators, DrawdownDuration) and 10 multi-output
(BollingerBands, MACD/MACDEXT/MACDFIX, Camarilla, VWAP bands, ...)
indicators to the golden suite. 444 fixtures replay bit-for-bit
through the Python binding.

* test(golden): cover 50 exotic-input indicators

Add deterministic synthetic feeders for the DerivativesTick (17),
CrossSection (15), Trade (8), TradeQuote (3) and OrderBook (7)
families, derived from the shared OHLCV input series in both
gen_golden and a new Python replay harness (test_golden_exotic).
All 494 fixtures replay bit-for-bit through the Python binding.

* test(golden): complete 514-indicator golden coverage

Add the final tranches: 3 mixed multi-output indicators (Ichimoku,
WilliamsFractals, LeadLagCrossCorrelation), 6 histogram profiles
(time/volume seasonality + TPO/volume price profiles), 10 alt-chart
bar builders and the footprint. Every one of the 514 distinct
indicators now has a Rust-generated g_<Canonical>.csv fixture and a
generic Python replay (scalar/multi/exotic/profile/bars), all passing
bit-for-bit.

* test(golden): add generic Node replay for all 514 indicators

A manifest-driven node:test harness reconstructs every indicator by its
native class, feeds the same synthetic stream derived from the shared
golden input, and checks output bit-for-bit against the Rust reference
fixtures (scalar/multi/exotic/profile/bars). node_manifest.json is
generated from index.d.ts plus the Python-side manifests. 514/514 pass.

* test(golden): add generated Go replay for all 514 indicators

golden_all_test.go (generated by gen_golden_test.py) reconstructs every
Go indicator, feeds the shared synthetic stream and checks output
bit-for-bit against the Rust reference fixtures. A reflection-based
comparator flattens multi-output structs, profiles and bar slices so one
path covers all archetypes. This is the first C-ABI binding verified
across the full catalogue. 514/514 pass.

* test(golden): add generated C# replay for all 514 indicators

GoldenAllTests.g.cs (generated by gen_golden_test.py) reconstructs every
C# indicator, feeds the shared synthetic stream and checks output
bit-for-bit against the Rust reference fixtures via a reflection-based
flatten covering scalar/multi/profile/bar archetypes. 514/514 pass.

Also add the '#nullable enable' directive the compiler requires to the
generated Indicators.g.cs, clearing the four CS8669 warnings on the
nullable double[] profile return types.

* fix(java): marshal C ABI bool params correctly; add 514 golden replay

The Java FFM binding marshalled the cross-section state flags (newHigh,
newLow, aboveMa, onBuySignal) as JAVA_DOUBLE arrays, but the C ABI takes
them as const bool* (one byte each), so the native side read the low byte
of each 8-byte double and saw every flag as false. Add WickraNative.
boolSegment and use it across the 15 cross-section indicators. Also pass
the MacdExt MaType arguments as byte to match the uint8_t downcall
descriptor (was int, throwing WrongMethodTypeException).

Add GoldenAllTest.java (generated by gen_golden_test.py): a reflection
runner replaying all 514 indicators against the Rust reference fixtures.
The bugs above were found by this test; 514/514 now pass.

* fix(r): marshal C ABI bool flags correctly; add 514 golden replay

The R wrapper passed the cross-section state flags as (bool *)REAL(x),
reinterpreting the 8-byte doubles as 1-byte bools so the native side read
every flag as false. Add wk_bool_vec to convert each flag vector into a
real C bool buffer and use it for all 15 cross-section update wrappers.

Add test-golden-all.R + generated golden_specs.R: a reflective runner
replaying all 514 indicators against the Rust reference fixtures. The bug
above was found by this test; verified 514/514 pass locally.

* test(golden): add WASM replay for all 514 indicators

A manifest-driven node:test harness loads the nodejs-target wasm-pack
build, reconstructs every indicator by its JS class, feeds the shared
synthetic stream and checks output bit-for-bit against the Rust
reference fixtures. wasm_manifest.json is generated from the wasm .d.ts
plus the shared manifests; a recursive flattener covers scalar, multi
(Reflect objects), profile and bar shapes. 514/514 pass locally
(wasm-pack build --target nodejs, then node --test).

* test(golden): add C and C++ replay for all 514 indicators

golden_test.c (generated by gen_golden_test.py) drives every indicator
through the C ABI (wickra.h) and checks output bit-for-bit against the
Rust reference fixtures. golden_test.cpp #includes the same source so the
identical runner is compiled and run under both gcc (C) and g++ (C++) via
the CMake targets golden_test / golden_test_cpp — proving the extern "C"
header is consumable from each language. Both 514/514 (verified via ctest).

* test(golden): gofmt the generated Go golden replay

* test(golden): make the Node fixture reader CRLF-safe and pin fixtures to LF
This commit is contained in:
kingchenc
2026-06-15 04:48:51 +02:00
committed by GitHub
parent de1112ea91
commit 4f708d410d
573 changed files with 102337 additions and 77 deletions
Download Patch File Download Diff File Expand all files Collapse all files
bindings/r/src/wickra.c
+30 -15
View File
@@ -7,6 +7,21 @@
#include <stddef.h>
#include "wickra.h"
/* Convert an R numeric vector of flags (non-zero == TRUE) into a C `bool*`
* buffer (one byte per element). The cross-section indicators take their state
* flags as `const bool*`; casting `wk_bool_vec(x)` would reinterpret the
* 8-byte doubles as 1-byte bools and read every flag as false. The buffer is
* allocated with R_alloc, so it lives until the enclosing .Call returns. */
static bool *wk_bool_vec(SEXP x) {
R_xlen_t n = Rf_xlength(x);
bool *out = (bool *)R_alloc(n, sizeof(bool));
double *src = REAL(x);
for (R_xlen_t i = 0; i < n; i++) {
out[i] = src[i] != 0.0;
}
return out;
}
static void abandoned_baby_fin(SEXP e) {
struct AbandonedBaby *h = (struct AbandonedBaby *)R_ExternalPtrAddr(e);
if (h) wickra_abandoned_baby_free(h);
@@ -104,7 +119,7 @@ SEXP wk_absolute_breadth_index_new(void) {
}
SEXP wk_absolute_breadth_index_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct AbsoluteBreadthIndex *h = (struct AbsoluteBreadthIndex *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_absolute_breadth_index_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_absolute_breadth_index_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_absolute_breadth_index_warmup_period(SEXP e) {
struct AbsoluteBreadthIndex *h = (struct AbsoluteBreadthIndex *)R_ExternalPtrAddr(e);
@@ -260,7 +275,7 @@ SEXP wk_ad_volume_line_new(void) {
}
SEXP wk_ad_volume_line_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct AdVolumeLine *h = (struct AdVolumeLine *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_ad_volume_line_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_ad_volume_line_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_ad_volume_line_warmup_period(SEXP e) {
struct AdVolumeLine *h = (struct AdVolumeLine *)R_ExternalPtrAddr(e);
@@ -531,7 +546,7 @@ SEXP wk_advance_decline_new(void) {
}
SEXP wk_advance_decline_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct AdvanceDecline *h = (struct AdvanceDecline *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_advance_decline_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_advance_decline_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_advance_decline_warmup_period(SEXP e) {
struct AdvanceDecline *h = (struct AdvanceDecline *)R_ExternalPtrAddr(e);
@@ -562,7 +577,7 @@ SEXP wk_advance_decline_ratio_new(void) {
}
SEXP wk_advance_decline_ratio_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct AdvanceDeclineRatio *h = (struct AdvanceDeclineRatio *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_advance_decline_ratio_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_advance_decline_ratio_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_advance_decline_ratio_warmup_period(SEXP e) {
struct AdvanceDeclineRatio *h = (struct AdvanceDeclineRatio *)R_ExternalPtrAddr(e);
@@ -2059,7 +2074,7 @@ SEXP wk_breadth_thrust_new(SEXP a0) {
}
SEXP wk_breadth_thrust_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct BreadthThrust *h = (struct BreadthThrust *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_breadth_thrust_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_breadth_thrust_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_breadth_thrust_warmup_period(SEXP e) {
struct BreadthThrust *h = (struct BreadthThrust *)R_ExternalPtrAddr(e);
@@ -2131,7 +2146,7 @@ SEXP wk_bullish_percent_index_new(void) {
}
SEXP wk_bullish_percent_index_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct BullishPercentIndex *h = (struct BullishPercentIndex *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_bullish_percent_index_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_bullish_percent_index_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_bullish_percent_index_warmup_period(SEXP e) {
struct BullishPercentIndex *h = (struct BullishPercentIndex *)R_ExternalPtrAddr(e);
@@ -3462,7 +3477,7 @@ SEXP wk_cumulative_volume_index_new(void) {
}
SEXP wk_cumulative_volume_index_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct CumulativeVolumeIndex *h = (struct CumulativeVolumeIndex *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_cumulative_volume_index_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_cumulative_volume_index_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_cumulative_volume_index_warmup_period(SEXP e) {
struct CumulativeVolumeIndex *h = (struct CumulativeVolumeIndex *)R_ExternalPtrAddr(e);
@@ -7104,7 +7119,7 @@ SEXP wk_high_low_index_new(SEXP a0) {
}
SEXP wk_high_low_index_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct HighLowIndex *h = (struct HighLowIndex *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_high_low_index_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_high_low_index_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_high_low_index_warmup_period(SEXP e) {
struct HighLowIndex *h = (struct HighLowIndex *)R_ExternalPtrAddr(e);
@@ -10118,7 +10133,7 @@ SEXP wk_mc_clellan_oscillator_new(void) {
}
SEXP wk_mc_clellan_oscillator_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct McClellanOscillator *h = (struct McClellanOscillator *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_mc_clellan_oscillator_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_mc_clellan_oscillator_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_mc_clellan_oscillator_warmup_period(SEXP e) {
struct McClellanOscillator *h = (struct McClellanOscillator *)R_ExternalPtrAddr(e);
@@ -10149,7 +10164,7 @@ SEXP wk_mc_clellan_summation_index_new(void) {
}
SEXP wk_mc_clellan_summation_index_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct McClellanSummationIndex *h = (struct McClellanSummationIndex *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_mc_clellan_summation_index_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_mc_clellan_summation_index_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_mc_clellan_summation_index_warmup_period(SEXP e) {
struct McClellanSummationIndex *h = (struct McClellanSummationIndex *)R_ExternalPtrAddr(e);
@@ -10914,7 +10929,7 @@ SEXP wk_new_highs_new_lows_new(void) {
}
SEXP wk_new_highs_new_lows_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct NewHighsNewLows *h = (struct NewHighsNewLows *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_new_highs_new_lows_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_new_highs_new_lows_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_new_highs_new_lows_warmup_period(SEXP e) {
struct NewHighsNewLows *h = (struct NewHighsNewLows *)R_ExternalPtrAddr(e);
@@ -11870,7 +11885,7 @@ SEXP wk_percent_above_ma_new(void) {
}
SEXP wk_percent_above_ma_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct PercentAboveMa *h = (struct PercentAboveMa *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_percent_above_ma_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_percent_above_ma_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_percent_above_ma_warmup_period(SEXP e) {
struct PercentAboveMa *h = (struct PercentAboveMa *)R_ExternalPtrAddr(e);
@@ -17276,7 +17291,7 @@ SEXP wk_tick_index_new(void) {
}
SEXP wk_tick_index_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct TickIndex *h = (struct TickIndex *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_tick_index_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_tick_index_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_tick_index_warmup_period(SEXP e) {
struct TickIndex *h = (struct TickIndex *)R_ExternalPtrAddr(e);
@@ -17853,7 +17868,7 @@ SEXP wk_trin_new(void) {
}
SEXP wk_trin_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct Trin *h = (struct Trin *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_trin_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_trin_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_trin_warmup_period(SEXP e) {
struct Trin *h = (struct Trin *)R_ExternalPtrAddr(e);
@@ -18651,7 +18666,7 @@ SEXP wk_up_down_volume_ratio_new(void) {
}
SEXP wk_up_down_volume_ratio_update(SEXP e, SEXP a0, SEXP a1, SEXP a2, SEXP a3, SEXP a4, SEXP a5, SEXP a6) {
struct UpDownVolumeRatio *h = (struct UpDownVolumeRatio *)R_ExternalPtrAddr(e);
return Rf_ScalarReal(wickra_up_down_volume_ratio_update(h, (double *)REAL(a0), (double *)REAL(a1), (bool *)REAL(a2), (bool *)REAL(a3), (bool *)REAL(a4), (bool *)REAL(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
return Rf_ScalarReal(wickra_up_down_volume_ratio_update(h, (double *)REAL(a0), (double *)REAL(a1), wk_bool_vec(a2), wk_bool_vec(a3), wk_bool_vec(a4), wk_bool_vec(a5), (uintptr_t)Rf_xlength(a0), (int64_t)Rf_asReal(a6)));
}
SEXP wk_up_down_volume_ratio_warmup_period(SEXP e) {
struct UpDownVolumeRatio *h = (struct UpDownVolumeRatio *)R_ExternalPtrAddr(e);