Multi-modal Interaction Framework for Automated Assistants
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Solution Overview
Problem
Existing automated assistants often require verbal free form natural language input for interaction with third-party computing services, limiting accessibility for users with disabilities and inefficiently utilizing computing resources, as they struggle to interpret and match user intents effectively across various input modalities.
Innovation Solution
Implementing a multi-modal interaction framework that allows users to interact with third-party computing services using verbal and non-verbal inputs, such as visual and tactile modalities, through a client-server architecture with a graphical user interface, enabling touchless interaction and efficient traversal of dialog state machines.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If automated assistants use only verbal free form natural language input for interaction with third-party computing services, then the system architecture remains simple, but accessibility for users with disabilities is limited and computing resources are inefficiently utilized
Solution Approach 1:
The automated assistant is enhanced to accept multiple input modalities (verbal, visual, tactile) beyond traditional voice commands. The system processes different types of user inputs through a unified architecture that routes them to appropriate handling mechanisms, enabling users with various disabilities to interact effectively while maintaining a single system structure
Solution Approach 2:
A dialog state machine acts as an intermediary layer between the multi-modal input interface and the third-party computing services. This mediator translates diverse input forms into standardized intent representations, managing the complexity of multi-modal processing while preserving system modularity and ease of integration
2Adaptability or versatility
If automated assistants process and match user intents across various input modalities, then accessibility is improved, but computing resources are consumed more heavily for interpretation and matching
Solution Approach 1:
The dialog state machine performs preliminary processing of user inputs by maintaining state information across interaction turns. By tracking the conversational context and user intent state, the system avoids redundant interpretation and matching operations, reducing computing resource consumption while supporting multi-modal inputs
Solution Approach 2:
The system dynamically adjusts processing parameters based on the input modality and dialog state. By changing the level of interpretation depth and matching complexity according to the current context, the system optimizes computing resource usage while maintaining accurate intent recognition across different input types
3Ease of operation
If automated assistants support multiple input modalities including visual and tactile interfaces, then user interaction flexibility is enhanced, but the device complexity increases
Solution Approach 1:
The interface architecture is segmented into distinct modular components: a dialog state machine module, an intent recognition module, and an input handling module. Each modality (verbal, visual, tactile) has its own specialized handler that interfaces with the common dialog state machine, reducing overall complexity through functional decomposition
4Measurement precision
If automated assistants implement comprehensive intent matching across multiple modalities, then user intent resolution accuracy improves, but communication overhead and processing time increase
Solution Approach 1:
The dialog state machine maintains its own internal state representation that automatically updates based on processed inputs. This self-managing state tracking eliminates the need for complex cross-modality intent matching in each interaction turn, resolving user intent accurately while minimizing processing time through efficient state transitions
Data Source
AI summary
Techniques are described herein for multi-modal interaction between users, automated assistants, and other computing services. In various implementations, a user may engage with the automated assistant in order to further engage with a third party computing service. In some implementations, the user may advance through dialog state machines associated with third party computing service using both verbal input modalities and input modalities other than verbal modalities, such as visual/tactile modalities.


