def accuracy()

in accuracy.py [0:0]

• 122 lines of code
• 7 McCabe index (conditional complexity)

def accuracy(args):
    checkpoint = args.ckpt_id_or_path
    run_name = checkpoint.split("/")[-1]
    wandb.init(project="shot-categorizer", name=f"{run_name}-eval")

    florence = FlorenceTool(
        checkpoint,
        device="cuda",
        dtype="float16",
        check_task_types=False,
    )
    florence.load_model()

    dataset = load_dataset(args.dataset_id, split=args.dataset_split)

    color = {"match": {}, "extra": {}, "missing": {}}
    lighting = {"match": {}, "extra": {}, "missing": {}}
    lighting_type = {"match": {}, "extra": {}, "missing": {}}
    composition = {"match": {}, "extra": {}, "missing": {}}

    count = 0

    for i, still in tqdm.tqdm(enumerate(dataset)):
        image = still["image"].convert("RGB")
        original = {
            "<COLOR>": still["Color"] if still["Color"] else NONE_KEY_MAP["Color"],
            "<LIGHTING>": still["Lighting"] if still["Lighting"] else NONE_KEY_MAP["Lighting"],
            "<LIGHTING_TYPE>": still["Lighting Type"] if still["Lighting Type"] else NONE_KEY_MAP["Lighting Type"],
            "<COMPOSITION>": still["Composition"] if still["Composition"] else NONE_KEY_MAP["Composition"],
        }
        output = florence.run(
            image=image,
            task_prompt=["<COLOR>", "<LIGHTING>", "<LIGHTING_TYPE>", "<COMPOSITION>"],
        )
        output["<COLOR>"] = output["<COLOR>"].split(", ")
        output["<LIGHTING>"] = output["<LIGHTING>"].split(", ")
        output["<LIGHTING_TYPE>"] = output["<LIGHTING_TYPE>"].split(", ")
        output["<COMPOSITION>"] = output["<COMPOSITION>"].split(", ")
        matching_color = set(original["<COLOR>"]).intersection(set(output["<COLOR>"]))
        extra_color = set(output["<COLOR>"]) - set(original["<COLOR>"])
        missing_color = set(original["<COLOR>"]) - set(output["<COLOR>"])

        matching_lighting = set(original["<LIGHTING>"]).intersection(set(output["<LIGHTING>"]))
        extra_lighting = set(output["<LIGHTING>"]) - set(original["<LIGHTING>"])
        missing_lighting = set(original["<LIGHTING>"]) - set(output["<LIGHTING>"])

        matching_lighting_type = set(original["<LIGHTING_TYPE>"]).intersection(set(output["<LIGHTING_TYPE>"]))
        extra_lighting_type = set(output["<LIGHTING_TYPE>"]) - set(original["<LIGHTING_TYPE>"])
        missing_lighting_type = set(original["<LIGHTING_TYPE>"]) - set(output["<LIGHTING_TYPE>"])

        matching_composition = set(original["<COMPOSITION>"]).intersection(set(output["<COMPOSITION>"]))
        extra_composition = set(output["<COMPOSITION>"]) - set(original["<COMPOSITION>"])
        missing_composition = set(original["<COMPOSITION>"]) - set(output["<COMPOSITION>"])

        color["match"][i] = len(matching_color)
        color["extra"][i] = len(extra_color)
        color["missing"][i] = len(missing_color)

        lighting["match"][i] = len(matching_lighting)
        lighting["extra"][i] = len(extra_lighting)
        lighting["missing"][i] = len(missing_lighting)

        lighting_type["match"][i] = len(matching_lighting_type)
        lighting_type["extra"][i] = len(extra_lighting_type)
        lighting_type["missing"][i] = len(missing_lighting_type)

        composition["match"][i] = len(matching_composition)
        composition["extra"][i] = len(extra_composition)
        composition["missing"][i] = len(missing_composition)

        count += 1
        if count > 1000:
            break

    color_metrics = compute_metrics(color)
    lighting_metrics = compute_metrics(lighting)
    lighting_type_metrics = compute_metrics(lighting_type)
    composition_metrics = compute_metrics(composition)

    overall_precision = (
        color_metrics["precision"]
        + lighting_metrics["precision"]
        + lighting_type_metrics["precision"]
        + composition_metrics["precision"]
    ) / 4
    overall_recall = (
        color_metrics["recall"]
        + lighting_metrics["recall"]
        + lighting_type_metrics["recall"]
        + composition_metrics["recall"]
    ) / 4
    overall_f1 = (
        color_metrics["f1_score"]
        + lighting_metrics["f1_score"]
        + lighting_type_metrics["f1_score"]
        + composition_metrics["f1_score"]
    ) / 4
    overall_accuracy = (
        color_metrics["accuracy"]
        + lighting_metrics["accuracy"]
        + lighting_type_metrics["accuracy"]
        + composition_metrics["accuracy"]
    ) / 4

    print(
        f"Color - Precision: {color_metrics['precision']:.2f}%, Recall: {color_metrics['recall']:.2f}%, F1-score: {color_metrics['f1_score']:.2f}%, Accuracy-score: {color_metrics['accuracy']:.2f}%"
    )
    print(
        f"Lighting - Precision: {lighting_metrics['precision']:.2f}%, Recall: {lighting_metrics['recall']:.2f}%, F1-score: {lighting_metrics['f1_score']:.2f}%, Accuracy-score: {lighting_metrics['accuracy']:.2f}%"
    )
    print(
        f"Lighting Type - Precision: {lighting_type_metrics['precision']:.2f}%, Recall: {lighting_type_metrics['recall']:.2f}%, F1-score: {lighting_type_metrics['f1_score']:.2f}%, Accuracy-score: {lighting_type_metrics['accuracy']:.2f}%"
    )
    print(
        f"Composition - Precision: {composition_metrics['precision']:.2f}%, Recall: {composition_metrics['recall']:.2f}%, F1-score: {composition_metrics['f1_score']:.2f}%, Accuracy-score: {composition_metrics['accuracy']:.2f}%"
    )
    print(
        f"Overall - Precision: {overall_precision:.2f}%, Recall: {overall_recall:.2f}%, F1-score: {overall_f1:.2f}%, Accuracy-score: {overall_accuracy:.2f}%"
    )

    json_name = checkpoint.split("/")[-1]
    with open(f"{json_name}.json", "w") as f:
        results = {
            "color": color,
            "lighting": lighting,
            "lighting_type": lighting_type,
            "composition": composition,
            "color_metrics": color_metrics,
            "lighting_metrics": lighting_metrics,
            "lighting_type_metrics": lighting_type_metrics,
            "composition_metrics": composition_metrics,
            "overall_precision": overall_precision,
            "overall_recall": overall_recall,
            "overall_f1": overall_f1,
            "overall_accuracy": overall_accuracy,
        }
        json.dump(results, f)
        wandb.log(results)
        wandb.finish()