Cleanup: Further renaming in new curves code

A follow-up to e253f9f66d. Follow the policy from T85728
completely (using "num" as a prefix) and rename another function.
This commit is contained in:
Hans Goudey 2022-03-24 20:48:08 -05:00
parent d3999683ff
commit 6e72e3fdb2
19 changed files with 108 additions and 108 deletions

View File

@ -122,8 +122,8 @@ class CurvesGeometry : public ::CurvesGeometry {
* Accessors.
*/
int num_points() const;
int num_curves() const;
int points_num() const;
int curves_num() const;
IndexRange points_range() const;
IndexRange curves_range() const;
@ -243,7 +243,7 @@ class CurvesGeometry : public ::CurvesGeometry {
* The total number of points in the evaluated poly curve.
* This can depend on the resolution attribute if it exists.
*/
int evaluated_points_size() const;
int evaluated_points_num() const;
/**
* Access a range of indices of point data for a specific curve.
@ -275,7 +275,7 @@ class CurvesGeometry : public ::CurvesGeometry {
* Change the number of elements. New values for existing attributes should be properly
* initialized afterwards.
*/
void resize(int num_points, int num_curves);
void resize(int points_num, int curves_num);
/** Call after deforming the position attribute. */
void tag_positions_changed();
@ -314,9 +314,9 @@ namespace curves {
* and the fact that curves with two points cannot be cyclic. The logic is simple, but this
* function should be used to make intentions clearer.
*/
inline int curve_segment_size(const int num_points, const bool cyclic)
inline int curve_segment_size(const int points_num, const bool cyclic)
{
return (cyclic && num_points > 2) ? num_points : num_points - 1;
return (cyclic && points_num > 2) ? points_num : points_num - 1;
}
namespace bezier {
@ -381,10 +381,10 @@ namespace catmull_rom {
/**
* Calculate the number of evaluated points that #interpolate_to_evaluated is expected to produce.
* \param num_points: The number of points in the curve.
* \param points_num: The number of points in the curve.
* \param resolution: The resolution for each segment.
*/
int calculate_evaluated_size(int num_points, bool cyclic, int resolution);
int calculate_evaluated_size(int points_num, bool cyclic, int resolution);
/**
* Evaluate the Catmull Rom curve. The length of the #dst span should be calculated with
@ -399,7 +399,7 @@ namespace nurbs {
/**
* Checks the conditions that a NURBS curve needs to evaluate.
*/
bool check_valid_size_and_order(int num_points, int8_t order, bool cyclic, KnotsMode knots_mode);
bool check_valid_size_and_order(int points_num, int8_t order, bool cyclic, KnotsMode knots_mode);
/**
* Calculate the standard evaluated size for a NURBS curve, using the standard that
@ -410,14 +410,14 @@ bool check_valid_size_and_order(int num_points, int8_t order, bool cyclic, Knots
* shared.
*/
int calculate_evaluated_size(
int num_points, int8_t order, bool cyclic, int resolution, KnotsMode knots_mode);
int points_num, int8_t order, bool cyclic, int resolution, KnotsMode knots_mode);
/**
* Calculate the length of the knot vector for a NURBS curve with the given properties.
* The knots must be longer for a cyclic curve, for example, in order to provide weights for the
* last evaluated points that are also influenced by the first control points.
*/
int knots_size(int num_points, int8_t order, bool cyclic);
int knots_size(int points_num, int8_t order, bool cyclic);
/**
* Calculate the knots for a spline given its properties, based on built-in standards defined by
@ -428,7 +428,7 @@ int knots_size(int num_points, int8_t order, bool cyclic);
* changes, and is generally more intuitive than defining the knot vector manually.
*/
void calculate_knots(
int num_points, KnotsMode mode, int8_t order, bool cyclic, MutableSpan<float> knots);
int points_num, KnotsMode mode, int8_t order, bool cyclic, MutableSpan<float> knots);
/**
* Based on the knots, the order, and other properties of a NURBS curve, calculate a cache that can
@ -436,7 +436,7 @@ void calculate_knots(
* two pieces of information for every evaluated point: the first control point that influences it,
* and a weight for each control point.
*/
void calculate_basis_cache(int num_points,
void calculate_basis_cache(int points_num,
int evaluated_size,
int8_t order,
bool cyclic,
@ -461,11 +461,11 @@ void interpolate_to_evaluated(const BasisCache &basis_cache,
} // namespace curves
Curves *curves_new_nomain(int num_points, int num_curves);
Curves *curves_new_nomain(int points_num, int curves_num);
/**
* Create a new curves data-block containing a single curve with the given length and type.
*/
Curves *curves_new_nomain_single(int num_points, CurveType type);
Curves *curves_new_nomain_single(int points_num, CurveType type);
} // namespace blender::bke

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@ -9,11 +9,11 @@
namespace blender::bke::curves::catmull_rom {
int calculate_evaluated_size(const int num_points, const bool cyclic, const int resolution)
int calculate_evaluated_size(const int points_num, const bool cyclic, const int resolution)
{
const int eval_size = resolution * curve_segment_size(num_points, cyclic);
const int eval_size = resolution * curve_segment_size(points_num, cyclic);
/* If the curve isn't cyclic, one last point is added to the final point. */
return (cyclic && num_points > 2) ? eval_size : eval_size + 1;
return (cyclic && points_num > 2) ? eval_size : eval_size + 1;
}
/* Adapted from Cycles #catmull_rom_basis_eval function. */

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@ -10,53 +10,53 @@
namespace blender::bke::curves::nurbs {
bool check_valid_size_and_order(const int num_points,
bool check_valid_size_and_order(const int points_num,
const int8_t order,
const bool cyclic,
const KnotsMode knots_mode)
{
if (num_points < order) {
if (points_num < order) {
return false;
}
if (ELEM(knots_mode, NURBS_KNOT_MODE_BEZIER, NURBS_KNOT_MODE_ENDPOINT_BEZIER)) {
if (knots_mode == NURBS_KNOT_MODE_BEZIER && num_points <= order) {
if (knots_mode == NURBS_KNOT_MODE_BEZIER && points_num <= order) {
return false;
}
return (!cyclic || num_points % (order - 1) == 0);
return (!cyclic || points_num % (order - 1) == 0);
}
return true;
}
int calculate_evaluated_size(const int num_points,
int calculate_evaluated_size(const int points_num,
const int8_t order,
const bool cyclic,
const int resolution,
const KnotsMode knots_mode)
{
if (!check_valid_size_and_order(num_points, order, cyclic, knots_mode)) {
if (!check_valid_size_and_order(points_num, order, cyclic, knots_mode)) {
return 0;
}
return resolution * curve_segment_size(num_points, cyclic);
return resolution * curve_segment_size(points_num, cyclic);
}
int knots_size(const int num_points, const int8_t order, const bool cyclic)
int knots_size(const int points_num, const int8_t order, const bool cyclic)
{
if (cyclic) {
return num_points + order * 2 - 1;
return points_num + order * 2 - 1;
}
return num_points + order;
return points_num + order;
}
void calculate_knots(const int num_points,
void calculate_knots(const int points_num,
const KnotsMode mode,
const int8_t order,
const bool cyclic,
MutableSpan<float> knots)
{
BLI_assert(knots.size() == knots_size(num_points, order, cyclic));
UNUSED_VARS_NDEBUG(num_points);
BLI_assert(knots.size() == knots_size(points_num, order, cyclic));
UNUSED_VARS_NDEBUG(points_num);
const bool is_bezier = ELEM(mode, NURBS_KNOT_MODE_BEZIER, NURBS_KNOT_MODE_ENDPOINT_BEZIER);
const bool is_end_point = ELEM(mode, NURBS_KNOT_MODE_ENDPOINT, NURBS_KNOT_MODE_ENDPOINT_BEZIER);
@ -94,7 +94,7 @@ void calculate_knots(const int num_points,
}
static void calculate_basis_for_point(const float parameter,
const int num_points,
const int points_num,
const int degree,
const Span<float> knots,
MutableSpan<float> r_weights,
@ -104,7 +104,7 @@ static void calculate_basis_for_point(const float parameter,
int start = 0;
int end = 0;
for (const int i : IndexRange(num_points + degree)) {
for (const int i : IndexRange(points_num + degree)) {
const bool knots_equal = knots[i] == knots[i + 1];
if (knots_equal || parameter < knots[i] || parameter > knots[i + 1]) {
continue;
@ -121,7 +121,7 @@ static void calculate_basis_for_point(const float parameter,
for (const int i_order : IndexRange(2, degree)) {
if (end + i_order >= knots.size()) {
end = num_points + degree - i_order;
end = points_num + degree - i_order;
}
for (const int i : IndexRange(end - start + 1)) {
const int knot_index = start + i;
@ -146,14 +146,14 @@ static void calculate_basis_for_point(const float parameter,
r_start_index = start;
}
void calculate_basis_cache(const int num_points,
void calculate_basis_cache(const int points_num,
const int evaluated_size,
const int8_t order,
const bool cyclic,
const Span<float> knots,
BasisCache &basis_cache)
{
BLI_assert(num_points > 0);
BLI_assert(points_num > 0);
BLI_assert(evaluated_size > 0);
const int8_t degree = order - 1;
@ -168,7 +168,7 @@ void calculate_basis_cache(const int num_points,
MutableSpan<float> basis_weights(basis_cache.weights);
MutableSpan<int> basis_start_indices(basis_cache.start_indices);
const int last_control_point_index = cyclic ? num_points + degree : num_points;
const int last_control_point_index = cyclic ? points_num + degree : points_num;
const int evaluated_segment_size = curve_segment_size(evaluated_size, cyclic);
const float start = knots[degree];
@ -176,7 +176,7 @@ void calculate_basis_cache(const int num_points,
const float step = (end - start) / evaluated_segment_size;
for (const int i : IndexRange(evaluated_size)) {
/* Clamp parameter due to floating point inaccuracy. */
const float parameter = std::clamp(start + step * i, knots[0], knots[num_points + degree]);
const float parameter = std::clamp(start + step * i, knots[0], knots[points_num + degree]);
MutableSpan<float> point_weights = basis_weights.slice(i * order, order);

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@ -366,19 +366,19 @@ void BKE_curves_batch_cache_free(Curves *curves)
namespace blender::bke {
Curves *curves_new_nomain(const int num_points, const int num_curves)
Curves *curves_new_nomain(const int points_num, const int curves_num)
{
Curves *curves = static_cast<Curves *>(BKE_id_new_nomain(ID_CV, nullptr));
CurvesGeometry &geometry = CurvesGeometry::wrap(curves->geometry);
geometry.resize(num_points, num_curves);
geometry.resize(points_num, curves_num);
return curves;
}
Curves *curves_new_nomain_single(const int num_points, const CurveType type)
Curves *curves_new_nomain_single(const int points_num, const CurveType type)
{
Curves *curves = curves_new_nomain(num_points, 1);
Curves *curves = curves_new_nomain(points_num, 1);
CurvesGeometry &geometry = CurvesGeometry::wrap(curves->geometry);
geometry.offsets().last() = num_points;
geometry.offsets().last() = points_num;
geometry.curve_types().first() = type;
return curves;
}

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@ -149,21 +149,21 @@ CurvesGeometry::~CurvesGeometry()
/** \name Accessors
* \{ */
int CurvesGeometry::num_points() const
int CurvesGeometry::points_num() const
{
return this->point_size;
}
int CurvesGeometry::num_curves() const
int CurvesGeometry::curves_num() const
{
return this->curve_size;
}
IndexRange CurvesGeometry::points_range() const
{
return IndexRange(this->num_points());
return IndexRange(this->points_num());
}
IndexRange CurvesGeometry::curves_range() const
{
return IndexRange(this->num_curves());
return IndexRange(this->curves_num());
}
IndexRange CurvesGeometry::points_for_curve(const int index) const
@ -186,7 +186,7 @@ IndexRange CurvesGeometry::points_for_curves(const IndexRange curves) const
static int domain_size(const CurvesGeometry &curves, const AttributeDomain domain)
{
return domain == ATTR_DOMAIN_POINT ? curves.num_points() : curves.num_curves();
return domain == ATTR_DOMAIN_POINT ? curves.points_num() : curves.curves_num();
}
static CustomData &domain_custom_data(CurvesGeometry &curves, const AttributeDomain domain)
@ -457,7 +457,7 @@ static void calculate_evaluated_offsets(const CurvesGeometry &curves,
});
}
int CurvesGeometry::evaluated_points_size() const
int CurvesGeometry::evaluated_points_num() const
{
/* This could avoid calculating offsets in the future in simple circumstances. */
return this->evaluated_offsets().last();
@ -482,10 +482,10 @@ Span<int> CurvesGeometry::evaluated_offsets() const
}
threading::isolate_task([&]() {
this->runtime->evaluated_offsets_cache.resize(this->num_curves() + 1);
this->runtime->evaluated_offsets_cache.resize(this->curves_num() + 1);
if (this->has_curve_with_type(CURVE_TYPE_BEZIER)) {
this->runtime->bezier_evaluated_offsets.resize(this->num_points());
this->runtime->bezier_evaluated_offsets.resize(this->points_num());
}
else {
this->runtime->bezier_evaluated_offsets.clear_and_make_inline();
@ -536,7 +536,7 @@ void CurvesGeometry::ensure_nurbs_basis_cache() const
return;
}
this->runtime->nurbs_basis_cache.resize(this->num_curves());
this->runtime->nurbs_basis_cache.resize(this->curves_num());
MutableSpan<curves::nurbs::BasisCache> basis_caches(this->runtime->nurbs_basis_cache);
VArray<bool> cyclic = this->cyclic();
@ -579,7 +579,7 @@ Span<float3> CurvesGeometry::evaluated_positions() const
}
threading::isolate_task([&]() {
this->runtime->evaluated_position_cache.resize(this->evaluated_points_size());
this->runtime->evaluated_position_cache.resize(this->evaluated_points_num());
MutableSpan<float3> evaluated_positions = this->runtime->evaluated_position_cache;
VArray<int8_t> types = this->curve_types();
@ -645,16 +645,16 @@ Span<float3> CurvesGeometry::evaluated_positions() const
/** \name Operations
* \{ */
void CurvesGeometry::resize(const int num_points, const int num_curves)
void CurvesGeometry::resize(const int points_num, const int curves_num)
{
if (num_points != this->point_size) {
CustomData_realloc(&this->point_data, num_points);
this->point_size = num_points;
if (points_num != this->point_size) {
CustomData_realloc(&this->point_data, points_num);
this->point_size = points_num;
}
if (num_curves != this->curve_size) {
CustomData_realloc(&this->curve_data, num_curves);
this->curve_size = num_curves;
this->curve_offsets = (int *)MEM_reallocN(this->curve_offsets, sizeof(int) * (num_curves + 1));
if (curves_num != this->curve_size) {
CustomData_realloc(&this->curve_data, curves_num);
this->curve_size = curves_num;
this->curve_offsets = (int *)MEM_reallocN(this->curve_offsets, sizeof(int) * (curves_num + 1));
}
this->tag_topology_changed();
this->update_customdata_pointers();
@ -727,7 +727,7 @@ static std::optional<bounds::MinMaxResult<float3>> curves_bounds(const CurvesGeo
{
Span<float3> positions = curves.positions();
if (curves.radius) {
Span<float> radii{curves.radius, curves.num_points()};
Span<float> radii{curves.radius, curves.points_num()};
return bounds::min_max_with_radii(positions, radii);
}
return bounds::min_max(positions);
@ -926,7 +926,7 @@ static bool layer_matches_name_and_type(const CustomDataLayer &layer,
void CurvesGeometry::reverse_curves(const IndexMask curves_to_reverse)
{
CustomData_duplicate_referenced_layers(&this->point_data, this->num_points());
CustomData_duplicate_referenced_layers(&this->point_data, this->points_num());
/* Collect the Bezier handle attributes while iterating through the point custom data layers;
* they need special treatment later. */
@ -940,22 +940,22 @@ void CurvesGeometry::reverse_curves(const IndexMask curves_to_reverse)
if (positions_left.is_empty() &&
layer_matches_name_and_type(layer, ATTR_HANDLE_POSITION_LEFT, CD_PROP_FLOAT3)) {
positions_left = {static_cast<float3 *>(layer.data), this->num_points()};
positions_left = {static_cast<float3 *>(layer.data), this->points_num()};
continue;
}
if (positions_right.is_empty() &&
layer_matches_name_and_type(layer, ATTR_HANDLE_POSITION_RIGHT, CD_PROP_FLOAT3)) {
positions_right = {static_cast<float3 *>(layer.data), this->num_points()};
positions_right = {static_cast<float3 *>(layer.data), this->points_num()};
continue;
}
if (types_left.is_empty() &&
layer_matches_name_and_type(layer, ATTR_HANDLE_TYPE_LEFT, CD_PROP_INT8)) {
types_left = {static_cast<int8_t *>(layer.data), this->num_points()};
types_left = {static_cast<int8_t *>(layer.data), this->points_num()};
continue;
}
if (types_right.is_empty() &&
layer_matches_name_and_type(layer, ATTR_HANDLE_TYPE_RIGHT, CD_PROP_INT8)) {
types_right = {static_cast<int8_t *>(layer.data), this->num_points()};
types_right = {static_cast<int8_t *>(layer.data), this->points_num()};
continue;
}
@ -963,7 +963,7 @@ void CurvesGeometry::reverse_curves(const IndexMask curves_to_reverse)
attribute_math::convert_to_static_type(data_type, [&](auto dummy) {
using T = decltype(dummy);
reverse_curve_point_data<T>(
*this, curves_to_reverse, {static_cast<T *>(layer.data), this->num_points()});
*this, curves_to_reverse, {static_cast<T *>(layer.data), this->points_num()});
});
}
@ -1001,7 +1001,7 @@ static void adapt_curve_domain_point_to_curve_impl(const CurvesGeometry &curves,
MutableSpan<T> r_values)
{
attribute_math::DefaultMixer<T> mixer(r_values);
for (const int i_curve : IndexRange(curves.num_curves())) {
for (const int i_curve : IndexRange(curves.curves_num())) {
for (const int i_point : curves.points_for_curve(i_curve)) {
mixer.mix_in(i_curve, old_values[i_point]);
}
@ -1022,7 +1022,7 @@ void adapt_curve_domain_point_to_curve_impl(const CurvesGeometry &curves,
MutableSpan<bool> r_values)
{
r_values.fill(true);
for (const int i_curve : IndexRange(curves.num_curves())) {
for (const int i_curve : IndexRange(curves.curves_num())) {
for (const int i_point : curves.points_for_curve(i_curve)) {
if (!old_values[i_point]) {
r_values[i_curve] = false;
@ -1039,7 +1039,7 @@ static GVArray adapt_curve_domain_point_to_curve(const CurvesGeometry &curves,
attribute_math::convert_to_static_type(varray.type(), [&](auto dummy) {
using T = decltype(dummy);
if constexpr (!std::is_void_v<attribute_math::DefaultMixer<T>>) {
Array<T> values(curves.num_curves());
Array<T> values(curves.curves_num());
adapt_curve_domain_point_to_curve_impl<T>(curves, varray.typed<T>(), values);
new_varray = VArray<T>::ForContainer(std::move(values));
}
@ -1059,7 +1059,7 @@ static void adapt_curve_domain_curve_to_point_impl(const CurvesGeometry &curves,
const VArray<T> &old_values,
MutableSpan<T> r_values)
{
for (const int i_curve : IndexRange(curves.num_curves())) {
for (const int i_curve : IndexRange(curves.curves_num())) {
r_values.slice(curves.points_for_curve(i_curve)).fill(old_values[i_curve]);
}
}
@ -1070,7 +1070,7 @@ static GVArray adapt_curve_domain_curve_to_point(const CurvesGeometry &curves,
GVArray new_varray;
attribute_math::convert_to_static_type(varray.type(), [&](auto dummy) {
using T = decltype(dummy);
Array<T> values(curves.num_points());
Array<T> values(curves.points_num());
adapt_curve_domain_curve_to_point_impl<T>(curves, varray.typed<T>(), values);
new_varray = VArray<T>::ForContainer(std::move(values));
});

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@ -46,7 +46,7 @@ TEST(curves_geometry, Move)
CurvesGeometry other = std::move(curves);
/* The old curves should be empty, and the offsets are expected to be null. */
EXPECT_EQ(curves.num_points(), 0); /* NOLINT: bugprone-use-after-move */
EXPECT_EQ(curves.points_num(), 0); /* NOLINT: bugprone-use-after-move */
EXPECT_EQ(curves.curve_offsets, nullptr); /* NOLINT: bugprone-use-after-move */
/* Just a basic check that the new curves work okay. */
@ -206,7 +206,7 @@ TEST(curves_geometry, CatmullRomTwoPointCyclic)
/* The cyclic value should be ignored when there are only two control points. There should
* be 12 evaluated points for the single segment and an extra for the last point. */
EXPECT_EQ(curves.evaluated_points_size(), 13);
EXPECT_EQ(curves.evaluated_points_num(), 13);
}
TEST(curves_geometry, BezierPositionEvaluation)

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@ -236,10 +236,10 @@ int CurveComponent::attribute_domain_size(const AttributeDomain domain) const
const blender::bke::CurvesGeometry &geometry = blender::bke::CurvesGeometry::wrap(
curves_->geometry);
if (domain == ATTR_DOMAIN_POINT) {
return geometry.num_points();
return geometry.points_num();
}
if (domain == ATTR_DOMAIN_CURVE) {
return geometry.num_curves();
return geometry.curves_num();
}
return 0;
}

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@ -50,7 +50,7 @@ void BLI_covariance_m_vn_ex(int n,
* \return r_center the computed center (mean) of 3D points (may be NULL).
*/
void BLI_covariance_m3_v3n(const float (*cos_v3)[3],
int cos_vn_num,
int cos_v3_num,
bool use_sample_correction,
float r_covmat[3][3],
float r_center[3]);

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@ -218,7 +218,7 @@ static void curves_batch_cache_fill_strands_data(Curves *curves,
const blender::bke::CurvesGeometry &geometry = blender::bke::CurvesGeometry::wrap(
curves->geometry);
for (const int i : IndexRange(geometry.num_curves())) {
for (const int i : IndexRange(geometry.curves_num())) {
const IndexRange curve_range = geometry.points_for_curve(i);
*(uint *)GPU_vertbuf_raw_step(data_step) = curve_range.start();

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@ -21,7 +21,7 @@ bke::CurvesGeometry primitive_random_sphere(const int curves_size, const int poi
float *radius_data = (float *)CustomData_add_layer_named(
&curves.point_data, CD_PROP_FLOAT, CD_DEFAULT, nullptr, curves.point_size, "radius");
MutableSpan<float> radii{radius_data, curves.num_points()};
MutableSpan<float> radii{radius_data, curves.points_num()};
for (const int i : offsets.index_range()) {
offsets[i] = points_per_curve * i;

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@ -174,8 +174,8 @@ struct AddOperationExecutor {
use_interpolation_ = interpolate_length_ || interpolate_shape_;
new_curve_length_ = curves_sculpt_->curve_length;
tot_old_curves_ = curves_->num_curves();
tot_old_points_ = curves_->num_points();
tot_old_curves_ = curves_->curves_num();
tot_old_points_ = curves_->points_num();
if (add_amount_ == 0) {
return;
@ -216,8 +216,8 @@ struct AddOperationExecutor {
const int tot_added_curves = added_points.bary_coords.size();
const int tot_added_points = tot_added_curves * points_per_curve_;
curves_->resize(curves_->num_points() + tot_added_points,
curves_->num_curves() + tot_added_curves);
curves_->resize(curves_->points_num() + tot_added_points,
curves_->curves_num() + tot_added_curves);
threading::parallel_invoke([&]() { this->initialize_curve_offsets(tot_added_curves); },
[&]() { this->initialize_attributes(added_points); });
@ -515,7 +515,7 @@ struct AddOperationExecutor {
void ensure_curve_roots_kdtree()
{
if (self_->curve_roots_kdtree_ == nullptr) {
self_->curve_roots_kdtree_ = BLI_kdtree_3d_new(curves_->num_curves());
self_->curve_roots_kdtree_ = BLI_kdtree_3d_new(curves_->curves_num());
for (const int curve_i : curves_->curves_range()) {
const int root_point_i = curves_->offsets()[curve_i];
const float3 &root_pos_cu = curves_->positions()[root_point_i];

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@ -324,7 +324,7 @@ struct CombOperationExecutor {
void initialize_segment_lengths()
{
const Span<float3> positions_cu = curves_->positions();
self_->segment_lengths_cu_.reinitialize(curves_->num_points());
self_->segment_lengths_cu_.reinitialize(curves_->points_num());
threading::parallel_for(curves_->curves_range(), 128, [&](const IndexRange range) {
for (const int curve_i : range) {
const IndexRange points = curves_->points_for_curve(curve_i);

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@ -304,7 +304,7 @@ class DensityAddOperation : public CurvesSculptStrokeOperation {
if (old_kdtree_ == nullptr && minimum_distance > 0.0f) {
old_kdtree_ = this->kdtree_from_curve_roots_and_positions(curves, curves.curves_range(), {});
old_kdtree_size_ = curves.num_curves();
old_kdtree_size_ = curves.curves_num();
}
float density;
@ -525,7 +525,7 @@ class DensityAddOperation : public CurvesSculptStrokeOperation {
{
Array<bool> elimination_mask(points.positions.size(), false);
const int curves_added_previously = curves.num_curves() - old_kdtree_size_;
const int curves_added_previously = curves.curves_num() - old_kdtree_size_;
KDTree_3d *new_points_kdtree = this->kdtree_from_curve_roots_and_positions(
curves, IndexRange(old_kdtree_size_, curves_added_previously), points.positions);
@ -589,14 +589,14 @@ class DensityAddOperation : public CurvesSculptStrokeOperation {
const int tot_new_curves = new_points.positions.size();
const int points_per_curve = 8;
curves.resize(curves.num_points() + tot_new_curves * points_per_curve,
curves.num_curves() + tot_new_curves);
curves.resize(curves.points_num() + tot_new_curves * points_per_curve,
curves.curves_num() + tot_new_curves);
MutableSpan<int> offsets = curves.offsets();
MutableSpan<float3> positions = curves.positions();
for (const int i : IndexRange(tot_new_curves)) {
const int curve_i = curves.num_curves() - tot_new_curves + i;
const int curve_i = curves.curves_num() - tot_new_curves + i;
const int first_point_i = offsets[curve_i];
offsets[curve_i + 1] = offsets[curve_i] + points_per_curve;

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@ -1139,8 +1139,8 @@ static void execute_realize_curve_task(const RealizeInstancesOptions &options,
const Curves &curves_id = *curves_info.curves;
const bke::CurvesGeometry &curves = bke::CurvesGeometry::wrap(curves_id.geometry);
const IndexRange dst_point_range{task.start_indices.point, curves.num_points()};
const IndexRange dst_curve_range{task.start_indices.curve, curves.num_curves()};
const IndexRange dst_point_range{task.start_indices.point, curves.points_num()};
const IndexRange dst_curve_range{task.start_indices.curve, curves.curves_num()};
copy_transformed_positions(
curves.positions(), task.transform, dst_curves.positions().slice(dst_point_range));
@ -1194,9 +1194,9 @@ static void execute_realize_curve_task(const RealizeInstancesOptions &options,
[&](const AttributeDomain domain) {
switch (domain) {
case ATTR_DOMAIN_POINT:
return IndexRange(task.start_indices.point, curves.num_points());
return IndexRange(task.start_indices.point, curves.points_num());
case ATTR_DOMAIN_CURVE:
return IndexRange(task.start_indices.curve, curves.num_curves());
return IndexRange(task.start_indices.curve, curves.curves_num());
default:
BLI_assert_unreachable();
return IndexRange();

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@ -241,7 +241,7 @@ static void read_curve_positions(const Curves &curves_id,
Vector<float3> *r_coords)
{
const bke::CurvesGeometry &curves = bke::CurvesGeometry::wrap(curves_id.geometry);
const int total_size = curves.evaluated_points_size();
const int total_size = curves.evaluated_points_num();
r_coords->reserve(r_coords->size() + total_size * transforms.size());
r_coords->as_mutable_span().take_back(total_size).copy_from(curves.evaluated_positions());
for (const float3 &position : curves.evaluated_positions()) {

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@ -55,19 +55,19 @@ class EndpointFieldInput final : public GeometryFieldInput {
const Curves &curves_id = *curve_component.get_for_read();
const bke::CurvesGeometry &curves = bke::CurvesGeometry::wrap(curves_id.geometry);
if (curves.num_points() == 0) {
if (curves.points_num() == 0) {
return nullptr;
}
GeometryComponentFieldContext size_context{curve_component, ATTR_DOMAIN_CURVE};
fn::FieldEvaluator evaluator{size_context, curves.num_curves()};
fn::FieldEvaluator evaluator{size_context, curves.curves_num()};
evaluator.add(start_size_);
evaluator.add(end_size_);
evaluator.evaluate();
const VArray<int> &start_size = evaluator.get_evaluated<int>(0);
const VArray<int> &end_size = evaluator.get_evaluated<int>(1);
Array<bool> selection(curves.num_points(), false);
Array<bool> selection(curves.points_num(), false);
MutableSpan<bool> selection_span = selection.as_mutable_span();
devirtualize_varray2(start_size, end_size, [&](const auto &start_size, const auto &end_size) {
threading::parallel_for(curves.curves_range(), 1024, [&](IndexRange curves_range) {

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@ -45,8 +45,8 @@ static meshintersect::CDT_result<double> do_cdt(const bke::CurvesGeometry &curve
{
meshintersect::CDT_input<double> input;
input.need_ids = false;
input.vert.reinitialize(curves.evaluated_points_size());
input.face.reinitialize(curves.num_curves());
input.vert.reinitialize(curves.evaluated_points_num());
input.face.reinitialize(curves.curves_num());
VArray<bool> cyclic = curves.cyclic();
Span<float3> positions = curves.evaluated_positions();
@ -118,7 +118,7 @@ static void curve_fill_calculate(GeometrySet &geometry_set, const GeometryNodeCu
const Curves &curves_id = *geometry_set.get_curves_for_read();
const bke::CurvesGeometry &curves = bke::CurvesGeometry::wrap(curves_id.geometry);
if (curves.num_curves() == 0) {
if (curves.curves_num() == 0) {
geometry_set.replace_curves(nullptr);
return;
}

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@ -345,7 +345,7 @@ static void duplicate_curves(GeometrySet &geometry_set,
const bke::CurvesGeometry &curves = bke::CurvesGeometry::wrap(curves_id.geometry);
GeometryComponentFieldContext field_context{src_component, ATTR_DOMAIN_CURVE};
FieldEvaluator evaluator{field_context, curves.num_curves()};
FieldEvaluator evaluator{field_context, curves.curves_num()};
evaluator.add(count_field);
evaluator.set_selection(selection_field);
evaluator.evaluate();
@ -800,12 +800,12 @@ static void duplicate_points_curve(GeometrySet &geometry_set,
const CurveComponent &src_component = *geometry_set.get_component_for_read<CurveComponent>();
const Curves &src_curves_id = *src_component.get_for_read();
const bke::CurvesGeometry &src_curves = bke::CurvesGeometry::wrap(src_curves_id.geometry);
if (src_curves.num_points() == 0) {
if (src_curves.points_num() == 0) {
return;
}
GeometryComponentFieldContext field_context{src_component, ATTR_DOMAIN_POINT};
FieldEvaluator evaluator{field_context, src_curves.num_points()};
FieldEvaluator evaluator{field_context, src_curves.points_num()};
evaluator.add(count_field);
evaluator.set_selection(selection_field);
evaluator.evaluate();
@ -815,7 +815,7 @@ static void duplicate_points_curve(GeometrySet &geometry_set,
Array<int> offsets = accumulate_counts_to_offsets(selection, counts);
const int dst_size = offsets.last();
Array<int> point_to_curve_map(src_curves.num_points());
Array<int> point_to_curve_map(src_curves.points_num());
threading::parallel_for(src_curves.curves_range(), 1024, [&](const IndexRange range) {
for (const int i_curve : range) {
const IndexRange point_range = src_curves.points_for_curve(i_curve);

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@ -89,10 +89,10 @@ static VArray<int> construct_spline_count_gvarray(const CurveComponent &componen
auto count_fn = [curves](int64_t i) { return curves.points_for_curve(i).size(); };
if (domain == ATTR_DOMAIN_CURVE) {
return VArray<int>::ForFunc(curves.num_curves(), count_fn);
return VArray<int>::ForFunc(curves.curves_num(), count_fn);
}
if (domain == ATTR_DOMAIN_POINT) {
VArray<int> count = VArray<int>::ForFunc(curves.num_curves(), count_fn);
VArray<int> count = VArray<int>::ForFunc(curves.curves_num(), count_fn);
return component.attribute_try_adapt_domain<int>(
std::move(count), ATTR_DOMAIN_CURVE, ATTR_DOMAIN_POINT);
}