Modular Container Production Transport System
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Solution Overview
Problem
Existing manufacturing devices for liquid containers are inflexible and costly due to the need to accommodate various beverage types, sterilization levels, and labeling methods, requiring high production costs and complex customization.
Innovation Solution
A modular device with a transport system that integrates shaping, filling, and sterilization units, using identical transport devices with adjustable gripping elements and control integration, allowing for flexible assembly based on specific product requirements and spatial conditions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If a device is designed to accommodate various beverage types, sterilization levels, and labeling methods, then adaptability is improved, but device complexity and production cost increase
Solution Approach 1:
The device is divided into separate functional modules (shaping unit, sterilization unit, filling unit, labeling unit) that can be independently configured and combined. Each module handles a specific processing step, allowing the system to be customized for different beverage types without redesigning the entire device.
Solution Approach 2:
A universal transport device with adjustable gripping elements serves as an interface between all functional modules. The same transport device can accommodate different numbers and types of modules depending on the specific processing requirements, providing multi-functionality without increasing overall complexity.
2Manufacturing precision
If a device is customized for specific beverage requirements, then production cost increases, but manufacturing precision and suitability improve
Solution Approach 1:
The device incorporates adjustable and reconfigurable elements, particularly the transport device with variable gripping elements that can be positioned at different locations. This dynamic configuration allows the same base device to be precisely adapted to different beverage processing requirements without manufacturing a completely new device for each application.
Solution Approach 2:
The device allows changes in operational parameters such as the number of modules, their arrangement sequence, and transport device configurations. These parameter changes enable precise adaptation to specific beverage requirements while using the same fundamental device structure, reducing manufacturing costs.
3Productivity
If multiple functional units are integrated into a single device, then productivity is improved, but device complexity increases
Solution Approach 1:
Multiple functional units (shaping, sterilization, filling, labeling) are merged into a single integrated device that processes beverages continuously through sequential modules. The modules are arranged in series along a common transport path, eliminating the need for separate machines and improving productivity while managing complexity through standardized integration.
Solution Approach 2:
The transport device serves as an intermediary mechanism that coordinates all functional modules. It provides a standardized interface for material transfer between modules, simplifying the integration of multiple functions by using a single coordinating system rather than requiring direct complex interconnections between each module pair.
4Adaptability or versatility
If a modular design with interchangeable units is implemented, then adaptability is improved, but device complexity and control difficulty increase
Solution Approach 1:
Each functional module is designed with standardized local interfaces that match the universal transport device protocol. This allows modules to be independently configured and arranged in different sequences or numbers depending on requirements, while the standardized local connections simplify the overall control integration compared to custom interfaces for each module combination.
Data Source
Figure 1
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Figure 3~4
AI summary
The invention relates to a device for producing containers for liquid (10) comprising a shaping unit (2), for shaping plastic preforms (10) into plastic containers (20), and a filling unit (4) for filling the plastic containers with a liquid medium, wherein the filling unit (4) lies downstream in a transport direction (R) of the plastic containers relative to the shaping unit (2). The shaping unit (2) has a feeding region (22) for feeding the plastic preforms (10) and a discharging region (24) in order to discharge the plastic containers (20) from the shaping unit (2). The filling unit (4) has a feeding region (42) for feeding the plastic containers to the filling unit (4) and a discharging region (44) for discharging the plastic containers from the shaping unit (4), wherein at least one transporting device (30), which is used as an interface, lies between the discharging region (24) of the shaping unit (2) and the feeding region (42) of the filling unit (4), said transporting device transporting plastic containers at least along some sections and individually between the shaping unit (2) and the filling unit (4). The transporting device (30) is designed such that at least one further unit (6, 7) for manipulating the containers into the device can be inserted between the shaping unit (2) and the filling unit (4). Said further unit (6, 7) can be connected to the transporting device (30) such that the transport flow of the containers (20) between the shaping unit (2) and the filling unit runs via the additional unit (32).