Modular Aircraft Galley System with Detachable Cabinet Assemblies
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Solution Overview
Problem
Aircraft galleys have low utilization efficiency and high operational costs due to fixed structures and equipment that are not adaptable to changing flight durations and passenger needs, leading to wasted space and resources.
Innovation Solution
The implementation of a modular aircraft galley system with detachable standardized cabinet assemblies that can be configured based on flight-specific requirements, using a passenger knowledge system and deep learning model to optimize meal and service configurations, allowing for sharing of galley components among aircraft.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Stability of the object's composition
If fixed structures and equipment are used in aircraft galleys, then structural stability and ease of installation are improved, but adaptability to changing flight requirements and space utilization efficiency deteriorate
Solution Approach 1:
The galley is divided into multiple independent cabinet assemblies (fresh-keeping cabinet, frozen-keeping cabinet, storage cabinet, etc.) that can be individually selected and installed. Each cabinet assembly is a separate module that can be detached and reconfigured based on flight requirements, resolving the contradiction between structural stability and adaptability.
Solution Approach 2:
The galley configuration becomes dynamic through the ability to selectively install or remove different cabinet assemblies based on flight duration, passenger count, and service requirements. The system transitions from a static fixed structure to a dynamic reconfigurable system that adapts to changing operational conditions.
2Reliability
If fixed equipment is installed in aircraft galleys, then reliability of service provision is improved, but space utilization efficiency and operational costs deteriorate
Solution Approach 1:
Different types of cabinet assemblies (fresh-keeping, frozen-keeping, storage, heating, cooling) can be selectively installed in the same galley space, allowing the system to perform multiple different functions depending on flight requirements. This universal approach improves space utilization while maintaining service reliability through appropriate equipment selection.
Solution Approach 2:
The system changes operational parameters (temperature, storage capacity, equipment type) by selecting different cabinet assemblies for different flight scenarios. For short flights, only essential storage cabinets are installed; for long flights, full refrigeration and heating equipment are deployed, optimizing both space utilization and service reliability.
3Adaptability or versatility
If standardized modular cabinet assemblies are used, then adaptability and space utilization are improved, but device complexity increases
Solution Approach 1:
The complex galley system is segmented into standardized, pre-designed cabinet assemblies with uniform connection interfaces. This segmentation reduces configuration complexity by providing modular building blocks that can be easily assembled and disassembled, while maintaining high adaptability through different combination possibilities.
Solution Approach 2:
All cabinet assemblies use standardized dimensions, connection methods, and mounting interfaces, creating a homogeneous system architecture. This standardization simplifies the overall system complexity while enabling high configurability, as any cabinet assembly can be interchanged with another of the same type without complex customization.
4Productivity
If detachable cabinet assemblies are implemented, then ease of reconfiguration and space utilization are improved, but ease of operation and maintenance complexity increase
Solution Approach 1:
The galley is segmented into self-contained cabinet assemblies that can be independently installed, removed, and maintained. This segmentation improves reconfiguration efficiency while managing operational complexity by providing clear modular boundaries and standardized connection points that simplify assembly and disassembly procedures.
Data Source
AI summary
The present invention relates to an aircraft galley, and a method and apparatus for configuring the same. The aircraft galley includes: a frame attached to walls of a cabin of an aircraft in a horizontal direction and has an open accommodating space; one or more first to third cabinet assemblies all detachably connected to the frame, wherein the sizes of the first to third cabinet assemblies and the accommodating space are in a predetermined proportion to each other, such that the space can be filled with different combinations formed by at least two of the first to third cabinet assemblies, and the different combinations differ in at least one of: types of cabinet assemblies, the number of each type of the cabinet assemblies, and the arranged position of each cabinet assembly. Therefore, the technical effects of improving the utilization efficiency of the aircraft galley and reducing airline costs are achieved.


