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tabular-decision-transformer-finance model is a specialized Decision Transformer adapted for classifying structured, tabular data (often seen in financial risk assessment). Instead of predicting actions in a sequence, this model interprets the feature vector (sequence of normalized features) and classifies the overall outcome (e.g., loan risk). It leverages the power of the attention mechanism to capture complex, non-linear interactions between features, outperforming traditional tree-based models on complex, high-dimensional datasets.DecisionTransformerForSequenceClassification).1from transformers import AutoTokenizer, AutoModelForSequenceClassification
2import torch
3
4# Conceptual loading (A tokenizer is often a custom feature processor here)
5model_name = "YourOrg/tabular-decision-transformer-finance"
6# Assuming a custom tokenizer/processor handles feature -> tensor conversion
7# tokenizer = TabularFeatureTokenizer.from_pretrained(model_name)
8# model = DecisionTransformerForSequenceClassification.from_pretrained(model_name)
9
10# --- Conceptual Input Data ---
11# A new applicant's features, normalized and ordered:
12raw_features = [35, 75000, 720, 15000, 1] # Age, Income, Score, Amount, History (1=Yes)
13
14# Input preparation (conceptual: features are tokenized/embedded into a tensor)
15# In reality, this requires a specific processor to handle categorical/continuous embeddings.
16input_tensor = torch.tensor([raw_features], dtype=torch.float32)
17
18# --- Conceptual Prediction ---
19# with torch.no_grad():
20# outputs = model(input_tensor)
21# logits = outputs.logits
22# predicted_class_id = torch.argmax(logits, dim=1).item()
23
24# Predicted class mapping (based on config.json)
25predicted_class_id = 0 # Example result
26label_map = {0: "High Risk", 1: "Medium Risk", 2: "Low Risk"}
27prediction = label_map[predicted_class_id]
28
29print(f"Input Profile: Age 35, Score 720, Amount $15k")
30print(f"Predicted Loan Risk: **{prediction}**")