Modular Self-Contained Cleanroom for Rapid Pharmaceutical Deployment
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Solution Overview
Problem
Current biosafety units and cleanroom technologies face challenges in providing modular, self-contained, and rapidly deployable solutions for pharmaceutical manufacturing that meet stringent regulatory requirements, such as cGMP compliance, while ensuring efficient sterilization and flexible scalability without disrupting existing infrastructure.
Innovation Solution
A modular, self-contained cleanroom system with integrated air handling, redundant power sources, a gas fire suppression system, and advanced information technology for monitoring and control, allowing for rapid deployment and reconfiguration, along with pre-validation for regulatory compliance, and the ability to integrate with existing facilities without requiring extensive revalidation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If traditional cleanroom systems are used, then regulatory compliance can be achieved, but deployment time and infrastructure disruption increase
Solution Approach 1:
The cleanroom system is divided into modular units that can be independently manufactured, validated, and deployed. Each module contains self-contained HVAC, electrical, and plumbing systems, allowing parallel assembly and reducing overall deployment time while maintaining compliance through pre-validation of individual modules
Solution Approach 2:
Critical validation and certification activities are performed on modular units before deployment to host facilities. Regulatory compliance documentation, sterilization validation, and system testing are completed in advance during module manufacturing, eliminating the need for extensive on-site validation and reducing deployment time
2Reliability
If traditional cleanroom systems are used, then regulatory compliance can be achieved, but infrastructure disruption increases
Solution Approach 1:
The system uses self-contained modular units with integrated HVAC, electrical, and plumbing systems that require minimal connection to host facility infrastructure. Each module is a complete functional unit that can be deployed independently, reducing the need for extensive infrastructure modifications
Solution Approach 2:
The modular cleanroom units are designed with universal connection interfaces that can adapt to various host facility configurations. The systems can operate with minimal external utilities and include redundant internal systems, allowing deployment in facilities with limited infrastructure capacity while maintaining regulatory compliance
3Productivity
If modular cleanroom units are deployed, then deployment speed and scalability improve, but system complexity increases
Solution Approach 1:
The complex cleanroom system is broken into standardized modular units, each containing complete but simplified subsystems. This segmentation allows parallel manufacturing and deployment while the standardization reduces the complexity of individual modules through repetition of proven designs
Solution Approach 2:
Each modular unit contains self-contained systems with built-in monitoring and control capabilities that autonomously manage their own operations. The modules include integrated sensors, actuators, and control logic that reduce the need for complex external control systems and simplify overall system management
4Adaptability or versatility
If modular cleanroom units are deployed, then scalability improves, but validation requirements increase
Solution Approach 1:
Validation is performed at the modular unit level rather than for the entire cleanroom facility. Each module receives individual validation documentation that can be replicated and combined, allowing scalability through repetition of validated designs without requiring re-validation of the complete system
Solution Approach 2:
Standardized modular units use identical designs and configurations that have been pre-validated. When multiple modules are deployed, the same validation documentation applies to each unit, reducing overall validation requirements compared to custom-designed systems where each addition would require new validation
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 rapid deployment and reconfiguration of pharmaceutical manufacturing facilities that meet cGMP standards, ensuring efficient sterilization and scalability, while minimizing disruptions to existing infrastructure and reducing the need for extensive revalidation, thus enhancing operational efficiency and compliance.
Implementation Method 1
an integrated fire suppression system integral to the cleanroom, wherein the fire suppression system comprises a gas fire suppression system
Implementation Method 2
The ability to sterilize the cleanroom and/or corridor unit is a distinct advantage when cleaning and/or converting between different products
Implementation Method 3
or a vapor hydrogen peroxide cleaning system
Data Source
AI summary
Biosafety units, methods of making and sealing the same are disclosed herein. The present invention includes a unitary structure able to be validated for pharmaceutical manufacturing comprising: at least one controlled air, sealable, sterilizable cleanroom; a mechanical system room adjacent to and separate from the cleanroom comprising: one or more air handling units that provide conditioned air to the cleanroom; and one or more power busses that provide power to electrical outlets in the cleanroom from two sources, wherein the at least two power supplies are connectable to one or more external electrical power sources; an integrated fire suppression system integral to the cleanroom; and one or more corridor connectors, wherein a corridor can be attached at the corridor connector.