Digital Celestial Clock Alignment with Dynamic Day-Night Arcs
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Solution Overview
Problem
Existing timekeeping systems fail to dynamically unify standard time, solar cycles, and lunar cycles on a single dial in real time or near-real time, lacking an algorithmic approach that anchors sunrise and sunset at cardinal points, proportionally re-distributes hour indices, and accommodates user-selected geographic locations or polar conditions.
Innovation Solution
A digital method that recalculates sunrise and sunset as cardinal points on a 360° clock face, dynamically redistributes hour indices based on actual day/night lengths, and integrates moon positions, using real-time ephemeris data and GPS-based location detection to support multiple geographic locations, including polar conditions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If fixed anchoring of day and night to predetermined times (6:00 AM for sunrise and 6:00 PM for sunset) is used, then the clock structure is simple and easy to manufacture, but the measurement precision of sunrise and sunset times deteriorates because it cannot accurately reflect seasonal and latitudinal variations
Solution Approach 1:
The patent implements dynamic recalculations of sunrise and sunset times based on real ephemeris data, allowing the clock to adapt to seasonal and latitudinal variations. The system continuously updates the day/night indicators and hour indices according to actual astronomical conditions, transforming the static clock into a dynamic instrument that maintains measurement precision across different locations and times of year.
Solution Approach 2:
The patent replaces complex mechanical adjustment mechanisms with a digital/electronic system that automatically calculates and displays accurate sunrise and sunset times. Instead of using physical gears or manual adjustments to account for varying day lengths, the system uses software algorithms that access astronomical data, thereby achieving high measurement precision while keeping the physical structure simple.
2Loss of information
If separate day/night indications are provided without dynamic movement, then the device complexity is reduced, but the loss of information increases because hour markers are not redistributed to account for shifting lengths of day and night
Solution Approach 1:
The patent dynamically redistributes hour markers on the clock face according to the actual lengths of day and night. As sunrise and sunset times change throughout the year, the system automatically adjusts the position and spacing of hour indices to reflect the current day/night cycle. This ensures that the clock always displays accurate temporal information without requiring complex mechanical reconfiguration.
Solution Approach 2:
The patent creates a digital representation of the day/night cycle that mirrors actual astronomical conditions. By copying real ephemeris data onto the clock display, the system preserves complete information about day and night lengths without requiring physical manipulation of the clock mechanism. The digital hour markers are reassigned based on the current astronomical state, maintaining information accuracy while simplifying the physical structure.
3Adaptability or versatility
If mechanical gear systems are used for seasonal adjustments, then the adaptability to different locations and seasons is improved, but the device complexity and manufacturing difficulty increase significantly
Solution Approach 1:
The patent replaces complex mechanical gear systems with a digital calculation and display system. Instead of using physical mechanisms to adjust for different locations and seasons, the system uses software algorithms that automatically calculate sunrise, sunset, moonrise, and moonset times based on user-selected geographic coordinates and date. This approach provides high adaptability to any location or time while maintaining ease of manufacture, as only the software needs to be updated rather than the physical structure.
Solution Approach 2:
The patent creates a universal clock system that can display astronomical information for any geographic location and any time of year through a single digital interface. The system handles multiple functions including solar position, lunar position, day/night indicators, and hour marker redistribution through one unified digital platform, eliminating the need for separate mechanical systems for each function and thereby simplifying manufacturing.
4Productivity
If a single 360° dial with real-time recalculation is implemented, then the productivity of information display is improved by providing immediate awareness of celestial positions, but the device complexity increases
Solution Approach 1:
The patent uses digital calculation and display systems to provide real-time recalculation of celestial positions, replacing what would traditionally require complex mechanical timing mechanisms. The system rapidly calculates and displays sun and moon positions, day/night indicators, and hour markers through software algorithms, achieving high information display productivity while keeping the physical structure simple and easy to manufacture.
Data Source
AI summary
The present invention is a digital timekeeping system that integrates standard civil time with real-time astronomical data, including sunrise, sunset, moonrise, moonset. Utilizing ephemeris calculations, the system dynamically adjusts a 360° clockface to reflect varying day and night lengths based on the user's geographic location and date. Sunrise is anchored at left and sunset at right, dividing the clockface into equal and distinct daytime and nighttime arcs. Hour indices are proportionally spaced to represent actual daylight and darkness durations, creating intuitive time visualization. Sun and moon indicators traverse the dial, positioning themselves in the upper semicircle when above the horizon and in the lower semicircle when below. This solution adapts to diverse geographic conditions, including polar regions, providing an intuitive representation of celestial movements alongside conventional timekeeping. The invention uniquely aligns standard time with celestial observations, offering users a precise visual depiction of time integrated with natural astronomical cycles.


