Rational Hive Structure with Trapezoidal Comb Frames
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Solution Overview
Problem
Current bee hives do not effectively optimize colony development and resistance to pathogens, leading to high mortality rates and increased costs for beekeepers due to inefficient insulation and lack of specific design to enhance hive performance.
Innovation Solution
A rational hive structure with optimized insulation and comb frame design that allows for improved temperature control and reduced thermal dissipation, enhancing brood surface area and bee health, including trapezoidal comb frames that move the barycenter to warmer regions within the hive.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of energy
If standard rational hive insulation is used, then basic temperature maintenance is achieved, but thermal dissipation remains high leading to increased energy consumption and humidity issues
Solution Approach 1:
The patent applies composite insulation materials with optimized thermal properties to the hive structure. The insulation system uses multiple layers including reflective barriers and thermal insulators that work together to reduce thermal dissipation while managing humidity, resolving the contradiction between energy loss reduction and energy consumption for temperature maintenance.
Solution Approach 2:
The patent modifies the thermal parameters of the hive structure by implementing specific insulation thicknesses and materials with optimized thermal conductivity values. These parameter changes reduce thermal dissipation while maintaining appropriate internal temperatures, addressing the energy efficiency contradiction.
2Productivity
If standard comb frame geometry is used, then basic brood rearing space is provided, but the barycenter remains in suboptimal temperature regions reducing brood development efficiency
Solution Approach 1:
The patent implements asymmetric comb frame geometry where the frames are positioned and dimensioned to shift the brood chamber barycenter toward the warmer central region of the hive. This asymmetric arrangement optimizes temperature distribution across the brood surface, improving brood development efficiency while maintaining adequate space for all brood stages.
Solution Approach 2:
The patent optimizes the three-dimensional geometry of comb frames, adjusting height, width, and positioning to achieve optimal barycenter location. By considering the vertical and horizontal dimensions simultaneously, the design places the majority of brood cells in the optimal temperature zone, enhancing productivity.
3Reliability
If hive structure is optimized for temperature control, then brood development improves, but hive complexity increases
Solution Approach 1:
The patent applies localized optimization to specific critical regions of the hive rather than uniformly complexifying the entire structure. Insulation and comb frame geometry are optimized in the brood chamber where temperature control is most critical for colony health, while other hive sections maintain simpler designs, thus improving reliability without excessive complexity increase.
Solution Approach 2:
The patent divides the hive into functional zones with different optimization levels. The brood chamber receives enhanced temperature control measures including specialized insulation and optimized comb positioning, while honey storage and other non-critical areas use standard simpler designs, balancing colony health improvement with structural simplicity.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
This design results in increased bee population, reduced pathologies, improved resistance to parasites, and lower honey consumption, leading to stronger, more resilient colonies with reduced chemical treatment needs and enhanced pollination capabilities.
Implementation Method 1
The lateral wall 3 has a thickness optimized to reduce the thermal dissipation from the brood chamber
Implementation Method 2
a heated foil (104) positioned at a middle height of the comb frame (6) to optimize a barycenter position of a brood comb
Data Source
Figure 1A~2
Figure 3A~3B
Figure 4A~5
AI summary
The present invention relates to a rational hive structure (1) comprising a nest comb box (2) delimiting a brood chamber for bees; a top cover (4) located in an upper portion of the hive structure to close an upper access to the hive structure; a lower closure element (5) located in a lower portion of the hive structure to close a bottom access to the hive structure; and a plurality of comb frames (6) in the form of substantially flat bodies extending in a main plane. Each comb frame includes peripheral element or bars (7) delimiting an inner comb area (8), wherein the inner comb area (8) has an overall dimension of at least 15 dm2.