Modular Work Cell Matrix for Scalable Custom Construction Manufacturing
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Solution Overview
Problem
Manufacturers face challenges in producing a wide variety of construction products that meet different codes, regulations, and customer expectations while maintaining the ability to produce at scale, often requiring manual processes and limited automation that hinder scalability.
Innovation Solution
A manufacturing matrix system with modular work cells, including robotic arms, digital support systems, and a data processing system that allows for real-time reprogramming and task adjustments to accommodate various projects, enabling flexible production of diverse construction products.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If manual processes and limited automation are used to produce a wide variety of construction products, then adaptability to different codes and customer expectations is improved, but productivity and scalability are worsened
Solution Approach 1:
The robotic arm system is designed with a universal interface that can accommodate multiple tools and end-effectors, allowing a single robotic platform to perform diverse construction tasks including drilling, fastening, cutting, and material handling. This multi-functionality enables the system to adapt to different product types and customization requirements while maintaining automated high-speed production
Solution Approach 2:
The manufacturing system incorporates programmable robotic arms with dynamic reconfiguration capabilities, allowing production parameters, tool selections, and assembly sequences to be changed through software programming rather than physical reconfiguration. This dynamic adaptability enables rapid response to different codes and customer specifications while sustaining automated productivity
2Productivity
If extensive automation is implemented to increase productivity, then productivity is improved, but device complexity and difficulty of operation are worsened
Solution Approach 1:
The robotic arm system incorporates self-positioning and self-alignment capabilities through sensors and control systems that automatically adjust tool positions and orientations. The system can autonomously navigate workspaces, locate components, and perform quality checks, reducing the need for complex manual intervention and simplifying operation while maintaining high automated productivity
3Ease of manufacture
If traditional manufacturing approaches are used, then ease of manufacture is improved, but adaptability to varying regulations and customer preferences is worsened
Solution Approach 1:
The system incorporates pre-programmed compliance libraries containing building codes, regulations, and customer preference parameters that are loaded before production begins. These preliminary configurations allow the robotic system to automatically adjust manufacturing parameters to meet specific regulatory requirements and customer specifications without requiring complex real-time decision-making, maintaining ease of manufacture while achieving high adaptability
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
Enables the production of customized construction products that conform to varying rules and expectations at scale, facilitating efficient and adaptable manufacturing processes.
Implementation Method 1
The arm tool can include a suction device coupled with the main body. The suction device can temporarily couple the component with the arm tool via suction.
Implementation Method 2
The arm tool can include a magnet holder coupled with the main body. The magnet holder can selectively engage and disengage a magnetic assembly to couple the component with a work surface.
Data Source
AI summary
A manufacturing matrix can include a plurality of work cells. The manufacturing matrix can include a plurality of robotic arms disposed in the plurality of work cells to produce a construction product. The manufacturing matrix can include a storage location to store inventory including at least one of the material, the tool, the subassembly of the construction product, or a completed construction product. The manufacturing matrix can include a transportation system to move the inventory within the manufacturing matrix. The manufacturing matrix can include a data processing system communicably coupled with the plurality of robotic arms and the transportation system. The data processing system can provide a first instruction to a first robotic arm cell and a second instruction to a second robotic arm of the second work cell.