3D Helix Scheduling Visualization for Cyclic Pattern Analysis
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Solution Overview
Problem
Current scheduling systems lack an intuitive and dynamic way to visualize and manage schedules of activities over time, failing to provide users with a holistic understanding of time usage and cyclic patterns, and do not effectively reschedule events based on changing priorities and user locations.
Innovation Solution
A system that represents schedules as a three-dimensional helix, allowing users to visualize cyclic patterns and reschedule events by identifying conflicts and prioritizing changes based on user location and behavioral patterns, using a recommendation engine to dynamically adjust event times and locations.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of information
If traditional linear calendar views are used to display schedules, then the interface is simple and easy to understand, but users cannot effectively visualize cyclic patterns and time usage trends over long periods
Solution Approach 1:
The patent transforms the traditional linear 1D timeline into a 3D helical structure where the vertical axis represents time progression, the horizontal axis represents cyclic repetition, and the radial dimension provides additional contextual information. This dimensional transformation enables users to visualize both short-term events and long-term cyclic patterns simultaneously, resolving the contradiction between information completeness and interface simplicity.
2Loss of information
If schedules are displayed in detail for short time periods, then individual events are clearly visible, but cyclic patterns and long-term trends cannot be observed
Solution Approach 1:
The helical calendar structure serves multiple functions simultaneously: it displays individual events with temporal precision, reveals cyclic patterns through rotational repetition, and shows long-term trends through vertical progression. Users can analyze schedules at multiple time scales without switching between different views or spending additional time, as all levels of analysis are integrated into the single helical structure.
3Adaptability or versatility
If events are rescheduled based on manual user input, then user control is maintained, but the system cannot adapt to changing priorities and locations dynamically
Solution Approach 1:
The system continuously monitors schedule data, user locations, and event priorities, then automatically adjusts event timings and locations based on this feedback. The helical visualization also provides feedback to users about cyclic patterns and conflicts, enabling them to make more informed decisions. This feedback loop allows the system to adapt dynamically while keeping the user interface simple through automated suggestions and conflict detection.
4Reliability
If priority-based rescheduling is implemented, then conflict resolution is improved, but the complexity of managing multiple priorities and constraints increases
Solution Approach 1:
The system pre-calculates optimal rescheduling options by analyzing all events, their priorities, and potential conflicts before user interaction. When conflicts are detected, the system has already prepared multiple resolution options based on priority rules, allowing for reliable conflict resolution without requiring complex real-time calculations or user effort to manage multiple constraints.
Data Source
AI summary
Methods and structure for presenting and analyzing schedule data. One exemplary embodiment is a system that includes an interface and a controller. The controller is able to identify a schedule comprising multiple events occurring over a length of time, to select a cyclic period within the length of time, and to generate a representation of the length of time as a view of a three dimensional (3D) helix wherein each revolution of the 3D helix corresponds with an iteration of the cyclic period. The controller is also able to determine an event location for each of the events along a path defined by the 3D helix, and to direct the interface to transmit instructions for presenting the 3D helix and the event locations via a display.