User Interface Assisted Composition Construction
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Solution Overview
Problem
Current educational technologies in classrooms often inefficiently bog down the learning process with cumbersome implementations, failing to effectively assist teachers in conveying concepts, assigning tasks, and assessing student progress, especially in environments with intermittent network connectivity.
Innovation Solution
A method and system for user-interface-assisted composition construction, where a client-side user interface presents input fields arranged in a predefined sequence, allowing students to input and arrange argument-building-block elements, which are then used to generate compositions that can be evaluated, while also managing connectivity by operating in local-saving mode during internet absence and remote-saving mode during presence.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional educational technology implementations are used, then teachers can convey concepts and assess progress, but the process becomes cumbersome and inefficient
Solution Approach 1:
The composition construction process is segmented into discrete argument-building blocks (claim, counterclaim, evidence, reasoning) that students can independently assemble. This segmentation simplifies the complex task of writing compositions by breaking it into manageable, reusable components that can be constructed efficiently even with intermittent connectivity.
Solution Approach 2:
Argument-building blocks are pre-configured with structural templates and validation rules. The system performs preliminary actions by automatically generating, validating, and organizing these blocks before final composition assembly, reducing the cognitive load and time required during actual composition construction.
2Reliability
If network connectivity is available, then compositions can be submitted for evaluation, but intermittent connectivity disrupts the educational process
Solution Approach 1:
The system dynamically adapts its operation mode based on network connectivity status. When connectivity is available, compositions are submitted for evaluation; when connectivity is interrupted, the system automatically switches to local-saving mode, allowing the educational process to continue uninterrupted and resume when connectivity is restored.
Solution Approach 2:
The system implements local-saving mode as a preemptive measure against connectivity interruptions. By continuously saving composition data locally before submission attempts, the system cushions against potential data loss from network failures, ensuring reliability regardless of connectivity conditions.
3Productivity
If students manually construct compositions from scratch, then compositions can be created, but the process consumes excessive time and effort
Solution Approach 1:
Students copy and assemble pre-validated argument-building blocks rather than constructing compositions from scratch. These blocks contain pre-formatted text, evidence, and reasoning structures that can be reused across multiple compositions, dramatically reducing construction time while maintaining quality standards.
Solution Approach 2:
Argument-building blocks are nested within larger composition structures, with each block containing smaller sub-components (claims nested within arguments, evidence nested within claims). This nested organization allows students to work at multiple levels of abstraction, assembling compositions efficiently by combining pre-fabricated modular elements.
Data Source
AI summary
Disclosed herein are methods and systems for user-interface-assisted composition construction. In an embodiment, a plurality of input fields, each having an argument-element type, is presented via a client-side user interface, initially arranged according to a predefined sequence. Textual inputs are received via the input fields, and corresponding argument-building-block elements are responsively presented via the client-side user interface according to a current arrangement on the client-side user interface of the input fields. Each presented argument-building-block element has the same argument-element type and the received textual input of the corresponding user-interface input field. Argument-building selections of one or more of the presented argument-building-block elements are received via the client-side user interface, and a composition is responsively generated in a displayed text editor at least in part by populating the textual inputs into the displayed text editor according to the received argument-building selections. The generated composition is submitted for evaluation.


