199 create create rtichoke curve list times function

pyproject.toml

@@ -14,7 +14,7 @@ dependencies = [
     "pyarrow>=21.0.0",
 ]
 name = "rtichoke"
-version = "0.1.22"
+version = "0.1.23"
 description = "interactive visualizations for performance of predictive models"
 readme = "README.md"
 

src/rtichoke/helpers/plotly_helper_functions.py

@@ -898,6 +898,38 @@ def _get_aj_estimates_from_performance_data(
     )
 
 
+def _get_aj_estimates_from_performance_data_times(
+    performance_data: pl.DataFrame,
+) -> pl.DataFrame:
+    return (
+        performance_data.filter(
+            (pl.col("chosen_cutoff") == 0) | (pl.col("chosen_cutoff") == 1)
+        )
+        .select("reference_group", "fixed_time_horizon", "real_positives", "n")
+        .unique()
+        .with_columns((pl.col("real_positives") / pl.col("n")).alias("aj_estimate"))
+        .select(
+            pl.col("reference_group"),
+            pl.col("fixed_time_horizon"),
+            pl.col("aj_estimate"),
+        )
+        .sort(by=["reference_group", "fixed_time_horizon"])
+    )
+
+
+def _check_if_multiple_populations_are_being_validated_times(
+    aj_estimates: pl.DataFrame,
+) -> bool:
+    max_val = (
+        aj_estimates.group_by("fixed_time_horizon")
+        .agg(pl.col("aj_estimate").n_unique().alias("num_populations"))[
+            "num_populations"
+        ]
+        .max()
+    )
+    return max_val is not None and max_val > 1
+
+
 def _check_if_multiple_populations_are_being_validated(
     aj_estimates: pl.DataFrame,
 ) -> bool:
@@ -908,6 +940,21 @@ def _check_if_multiple_models_are_being_validated(aj_estimates: pl.DataFrame) ->
     return aj_estimates["reference_group"].unique().len() > 1
 
 
+def _infer_performance_data_type_times(
+    aj_estimates_from_performance_data: pl.DataFrame, multiple_populations: bool
+) -> str:
+    multiple_models = _check_if_multiple_populations_are_being_validated_times(
+        aj_estimates_from_performance_data
+    )
+
+    if multiple_populations:
+        return "several populations"
+    elif multiple_models:
+        return "several models"
+    else:
+        return "single model"
+
+
 def _infer_performance_data_type(
     aj_estimates_from_performance_data: pl.DataFrame, multiple_populations: bool
 ) -> str:
@@ -1058,6 +1105,146 @@ def _add_hover_text_to_performance_data(
     )
 
 
+def _create_rtichoke_curve_list_times(
+    performance_data: pl.DataFrame,
+    stratified_by: str,
+    size: int = 500,
+    color_value=None,
+    curve="roc",
+    min_p_threshold=0,
+    max_p_threshold=1,
+) -> dict[str, Any]:
+    animation_slider_cutoff_prefix = (
+        "Prob. Threshold: "
+        if stratified_by == "probability_threshold"
+        else "Predicted Positives (Rate):"
+    )
+
+    x_metric, y_metric, x_label, y_label = _CURVE_CONFIG[curve]
+
+    aj_estimates_from_performance_data = _get_aj_estimates_from_performance_data_times(
+        performance_data
+    )
+
+    print("aj_estimates_from_performance_data", aj_estimates_from_performance_data)
+
+    multiple_populations = _check_if_multiple_populations_are_being_validated_times(
+        aj_estimates_from_performance_data
+    )
+
+    multiple_models = _check_if_multiple_models_are_being_validated(
+        aj_estimates_from_performance_data
+    )
+
+    perf_dat_type = _infer_performance_data_type_times(
+        aj_estimates_from_performance_data, multiple_populations
+    )
+
+    multiple_reference_groups = multiple_populations or multiple_models
+
+    performance_data_with_hover_text = _add_hover_text_to_performance_data(
+        performance_data.sort("chosen_cutoff"),
+        performance_metric_x=x_metric,
+        performance_metric_y=y_metric,
+        stratified_by=stratified_by,
+        perf_dat_type=perf_dat_type,
+    )
+
+    performance_data_ready_for_curve = _select_and_rename_necessary_variables(
+        performance_data_with_hover_text, x_metric, y_metric
+    )
+
+    reference_data = _create_reference_lines_data(
+        curve=curve,
+        aj_estimates_from_performance_data=aj_estimates_from_performance_data,
+        multiple_populations=multiple_populations,
+        min_p_threshold=min_p_threshold,
+        max_p_threshold=max_p_threshold,
+    )
+
+    axes_ranges = extract_axes_ranges(
+        performance_data_ready_for_curve,
+        curve=curve,
+        min_p_threshold=min_p_threshold,
+        max_p_threshold=max_p_threshold,
+    )
+
+    reference_group_keys = performance_data["reference_group"].unique().to_list()
+
+    cutoffs = (
+        performance_data_ready_for_curve.select(pl.col("chosen_cutoff"))
+        .drop_nulls()
+        .unique()
+        .sort("chosen_cutoff")
+        .to_series()
+        .to_list()
+    )
+
+    palette = [
+        "#1b9e77",
+        "#d95f02",
+        "#7570b3",
+        "#e7298a",
+        "#07004D",
+        "#E6AB02",
+        "#FE5F55",
+        "#54494B",
+        "#006E90",
+        "#BC96E6",
+        "#52050A",
+        "#1F271B",
+        "#BE7C4D",
+        "#63768D",
+        "#08A045",
+        "#320A28",
+        "#82FF9E",
+        "#2176FF",
+        "#D1603D",
+        "#585123",
+    ]
+
+    colors_dictionary = {
+        **{
+            key: "#BEBEBE"
+            for key in [
+                "random_guess",
+                "perfect_model",
+                "treat_none",
+                "treat_all",
+            ]
+        },
+        **{
+            variant_key: (
+                palette[group_index] if multiple_reference_groups else "#000000"
+            )
+            for group_index, reference_group in enumerate(reference_group_keys)
+            for variant_key in [
+                reference_group,
+                f"random_guess_{reference_group}",
+                f"perfect_model_{reference_group}",
+                f"treat_none_{reference_group}",
+                f"treat_all_{reference_group}",
+            ]
+        },
+    }
+
+    rtichoke_curve_list = {
+        "size": size,
+        "axes_ranges": axes_ranges,
+        "x_label": x_label,
+        "y_label": y_label,
+        "animation_slider_cutoff_prefix": animation_slider_cutoff_prefix,
+        "reference_group_keys": reference_group_keys,
+        "performance_data_ready_for_curve": performance_data_ready_for_curve,
+        "reference_data": reference_data,
+        "cutoffs": cutoffs,
+        "colors_dictionary": colors_dictionary,
+        "multiple_reference_groups": multiple_reference_groups,
+    }
+
+    return rtichoke_curve_list
+
+
 def _create_rtichoke_curve_list_binary(
     performance_data: pl.DataFrame,
     stratified_by: str,

src/rtichoke/helpers/sandbox_observable_helpers.py

@@ -912,7 +912,7 @@ def _create_list_data_to_adjust_binary(
     return list_data_to_adjust
 
 
-def create_list_data_to_adjust(
+def _create_list_data_to_adjust(
     aj_data_combinations: pl.DataFrame,
     probs_dict: Dict[str, np.ndarray],
     reals_dict: Union[np.ndarray, Dict[str, np.ndarray]],
@@ -922,25 +922,70 @@ def create_list_data_to_adjust(
 ) -> Dict[str, pl.DataFrame]:
     # reference_groups = list(probs_dict.keys())
     reference_group_labels = list(probs_dict.keys())
-    num_reals = len(reals_dict)
+
+    if isinstance(reals_dict, dict):
+        num_keys_reals = len(reals_dict)
+    else:
+        num_keys_reals = 1
+
+    # num_reals = len(reals_dict)
 
     reference_group_enum = pl.Enum(reference_group_labels)
 
     strata_enum_dtype = aj_data_combinations.schema["strata"]
 
-    # Flatten and ensure list format
-    data_to_adjust = pl.DataFrame(
-        {
-            "reference_group": np.repeat(reference_group_labels, num_reals),
-            "probs": np.concatenate(
-                [probs_dict[group] for group in reference_group_labels]
-            ),
-            "reals": np.tile(np.asarray(reals_dict), len(reference_group_labels)),
-            "times": np.tile(np.asarray(times_dict), len(reference_group_labels)),
-        }
-    ).with_columns(pl.col("reference_group").cast(reference_group_enum))
+    if len(probs_dict) == 1:
+        probs_array = np.asarray(probs_dict[reference_group_labels[0]])
+
+        if isinstance(reals_dict, dict):
+            reals_array = np.asarray(reals_dict[0])
+        else:
+            reals_array = np.asarray(reals_dict)
+
+        if isinstance(times_dict, dict):
+            times_array = np.asarray(times_dict[0])
+        else:
+            times_array = np.asarray(times_dict)
+
+        data_to_adjust = pl.DataFrame(
+            {
+                "reference_group": np.repeat(reference_group_labels, len(probs_array)),
+                "probs": probs_array,
+                "reals": reals_array,
+                "times": times_array,
+            }
+        ).with_columns(pl.col("reference_group").cast(reference_group_enum))
+
+    elif num_keys_reals == 1:
+        reals_array = np.asarray(reals_dict)
+        times_array = np.asarray(times_dict)
+        n = len(reals_array)
+
+        data_to_adjust = pl.DataFrame(
+            {
+                "reference_group": np.repeat(reference_group_labels, n),
+                "probs": np.concatenate(
+                    [np.asarray(probs_dict[g]) for g in reference_group_labels]
+                ),
+                "reals": np.tile(reals_array, len(reference_group_labels)),
+                "times": np.tile(times_array, len(reference_group_labels)),
+            }
+        ).with_columns(pl.col("reference_group").cast(reference_group_enum))
+
+    elif isinstance(reals_dict, dict) and isinstance(times_dict, dict):
+        data_to_adjust = (
+            pl.DataFrame(
+                {
+                    "reference_group": reference_group_labels,
+                    "probs": list(probs_dict.values()),
+                    "reals": list(reals_dict.values()),
+                    "times": list(times_dict.values()),
+                }
+            )
+            .explode(["probs", "reals", "times"])
+            .with_columns(pl.col("reference_group").cast(reference_group_enum))
+        )
 
-    # Apply strata
     data_to_adjust = add_cutoff_strata(
         data_to_adjust, by=by, stratified_by=stratified_by
     )
@@ -1637,6 +1682,7 @@ def _calculate_cumulative_aj_data(aj_data: pl.DataFrame) -> pl.DataFrame:
         )
         .agg([pl.col("reals_estimate").sum()])
         .pivot(on="classification_outcome", values="reals_estimate")
+        .fill_null(0)
         .with_columns(
             (pl.col("true_positives") + pl.col("false_positives")).alias(
                 "predicted_positives"

src/rtichoke/performance_data/performance_data_times.py

@@ -8,7 +8,7 @@
 from rtichoke.helpers.sandbox_observable_helpers import (
     create_breaks_values,
     create_aj_data_combinations,
-    create_list_data_to_adjust,
+    _create_list_data_to_adjust,
     create_adjusted_data,
     cast_and_join_adjusted_data,
     _calculate_cumulative_aj_data,
@@ -154,7 +154,7 @@ def prepare_binned_classification_data_times(
         risk_set_scope=risk_set_scope,
     )
 
-    list_data_to_adjust = create_list_data_to_adjust(
+    list_data_to_adjust = _create_list_data_to_adjust(
         aj_data_combinations,
         probs,
         reals,
@@ -175,6 +175,6 @@ def prepare_binned_classification_data_times(
     final_adjusted_data = cast_and_join_adjusted_data(
         aj_data_combinations,
         adjusted_data,
-    )
+    ).with_columns(pl.col("reals_estimate").fill_null(0.0))
 
     return final_adjusted_data

src/rtichoke/summary_report/summary_report.py

@@ -4,7 +4,7 @@
 
 from rtichoke.helpers.send_post_request_to_r_rtichoke import send_requests_to_rtichoke_r
 from rtichoke.helpers.sandbox_observable_helpers import (
-    create_list_data_to_adjust,
+    _create_list_data_to_adjust,
 )
 import subprocess
 
@@ -67,8 +67,8 @@ def create_data_for_summary_report(probs, reals, times, fixed_time_horizons):
     stratified_by = ["probability_threshold", "ppcr"]
     by = 0.1
 
-    list_data_to_adjust_polars = create_list_data_to_adjust(
-        probs, reals, times, stratified_by=stratified_by, by=by
+    list_data_to_adjust_polars = _create_list_data_to_adjust(
+        probs, reals, times, stratified_by=stratified_by, by=by, times_dict={}
     )
 
     return list_data_to_adjust_polars