Grid Table Animations for Sorting Context
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Solution Overview
Problem
Users face difficulty in understanding the relationship between data before and after sorting in large data sets, especially when substantial data becomes instantly visible without context after changing sorting criteria.
Innovation Solution
Implementing transition animations that visually illustrate the rearrangement of data elements from their initial to new sorting criteria, including off-screen data becoming visible, by generating animation data for the motion and visual changes of data elements during the sorting process.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Speed
If sorting criteria is changed immediately, then the displayed data reflects the new ordering instantly, but the user cannot understand the relationship between pre-sorting and post-sorting data
Solution Approach 1:
The system performs preliminary actions by capturing the state of data elements before sorting (initial positions, visibility status) and prepares animation data in advance. This allows the instantaneous sorting to occur while simultaneously preparing the visual transition information that will preserve context for the user.
Solution Approach 2:
The animation serves as an intermediary between the instantaneous sorting operation and the user's perception. It mediates the transition by visually representing the movement of data elements, allowing users to understand the relationship between pre- and post-sorting states without delaying the actual sorting operation.
2Quantity of substance
If large data sets are displayed, then more data is available for analysis, but much data remains off-screen and invisible to users
Solution Approach 1:
The system addresses the visibility problem by transitioning data elements from off-screen positions to on-screen positions through animated movement. This dimensional transition (from invisible off-screen space to visible on-screen space) allows users to track data elements as they become visible, maintaining context even in large data sets.
Solution Approach 2:
The animation system uses visual changes including color, transparency, and positioning to indicate the state and movement of data elements. These visual transformations help users distinguish between data that was previously off-screen and data that remains visible, enhancing awareness of data visibility and relationships.
3Loss of information
If sorting animation is implemented, then user understanding of data relationships is enhanced, but the sorting operation takes longer to complete
Solution Approach 1:
The system calculates and prepares animation data (movement paths, visual transformations) in advance as part of the sorting operation. This preliminary preparation allows the animation to play back efficiently without adding significant delay to the actual sorting process, as the computational work is distributed across preparation and execution phases.
Solution Approach 2:
The animation is implemented as a time-based periodic sequence of visual updates that represent the sorting transformation. By spacing the visual changes across a defined animation duration, the system provides continuous visual feedback without requiring the entire sorting operation to pause, maintaining efficiency while enhancing user understanding.
Data Source
AI summary
A table display presents animation to show changes in sorting and/or filtering criteria, providing users with visual references about the sorting operation and illustrating relationships between data elements before and after sorting, including data that was off-screen prior to sorting. A table presents a portion of a data element set arranged according to a first sorting criteria, such as the data field value in each data element. Upon receiving a second sorting criteria, a new arrangement of the data elements visible in the table is determined. Animation data is determined to specify the motion of visible and non-visible data elements from their locations under the first sorting criteria to their locations under the second sorting criteria. The transition animation is then initiated to show the movement of data elements from their locations under the first sorting criteria to their locations under the second sorting criteria.