Iterative Autoencoder–Transformer Learning for Image Component Generation

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Solution Overview

Problem

Current AI models lack the ability to instantly adapt to novel situations due to a distributional shift from training data, and the definition of compositionality in the image domain is challenging, affecting model generalizability and handling of unseen scenarios.

Innovation Solution

An electronic device applies iterative learning on an autoencoder model and transformer model to generate image components, utilizing an encoder model to determine encoded images, a learned codebook for quantization, a generator model for reconstruction, and a discriminator model for quality assessment, while the transformer model predicts token sequences to enhance image generation.

Engineering Contradictions & Design Principles

VSEngineering Contradiction Analysis

1Reliability

If current AI models are trained on fixed training data, then they achieve good performance on training distributions, but they perform poorly when there is a distributional shift from training data

Engineering Contradiction:
Improvemodel performance on training dataVSAvoidadaptability to novel situations
Core Design Contradiction:
ReliabilityVSAdaptability or versatility

Solution Approach 1:

The patent segments images into discrete compositional components (objects, attributes, relations) that can be independently represented and recombined. This segmentation allows the model to learn general compositional rules rather than memorizing specific training examples, enabling better adaptation to novel situations while maintaining performance on training data.

Inventive Principle:
Principle #1Segmentation

Solution Approach 2:

The patent implements iterative learning where the model continuously refines its compositional representations through multiple training iterations. The system dynamically updates its understanding of image components and their relationships, allowing it to adapt to distributional shifts while preserving learned compositional structures.

Inventive Principle:
Principle #15Dynamics

2Loss of information

If the image domain uses high dimensional continuous space representations, then it captures rich image concepts, but the definition of compositionality becomes more challenging

Engineering Contradiction:
Improvepreservation of image conceptsVSAvoidcomplexity of compositional representation
Core Design Contradiction:
Loss of informationVSDevice complexity

Solution Approach 1:

The patent introduces discrete token representations as an intermediary between continuous image data and compositional reasoning. These tokens serve as a bridge that preserves rich image concepts while providing a structured, interpretable framework for defining compositionality in terms of discrete objects, attributes, and relationships.

Inventive Principle:
Principle #24Intermediary (Mediator)

Solution Approach 2:

The patent replaces continuous spatial reasoning with discrete symbolic manipulation. Instead of working directly with continuous pixel coordinates and gradients, the system uses discrete tokens and rule-based composition, simplifying the definition of compositionality while maintaining representational power through the tokenization framework.

Inventive Principle:
Principle #28Mechanics substitution (Replace mechanical system)

Data Source

PatentUS12444173B2Image component generation based on application of iterative learning on autoencoder model and transformer model
Publication Date: 2025.10.14 SONY GROUP CORP
  • US12444173B2 patent drawing
  • US12444173B2 patent drawing
  • US12444173B2 patent drawing

AI summary

An electronic device and method for image component generation based on application of iterative learning on autoencoder model and transformer model is provided. The electronic device fine-tunes, based on first training data including a first set of images, an autoencoder model and a transformer model. The autoencoder model includes an encoder model, a learned codebook, a generator model, and a discriminator model. The electronic device selects a subset of images from the first training data. The electronic device applies the encoder model on the selected subset of images. The electronic device generates second training data including a second set of images, based on the application of the encoder model. The generated second training data corresponds to a quantized latent representation of the selected subset of images. The electronic device pre-trains the autoencoder model to create a next generation of the autoencoder model, based on the generated second training data.