Facilities and processes to produce biotherapeutics
Inventors
Shaver, Jeremy Martin • Amimeur, Tileli • Ketchem, Randal Robert • Vandiver, Michael W. • Horman, Brian W. • Garcia Morales, Fernando
Assignees
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Abstract
The concepts described herein are directed to implementations of production facilities that can produce molecules used to treat biological conditions, such as biotherapeutics. The biotherapeutics can include various molecules, such as proteins, enzymes, and antibodies. The production facilities can include a number of separate modular cleanrooms that comprise particular pieces of equipment to perform one or more aspects of the processes used to manufacture biotherapeutics. The modular cleanrooms are arranged such that material that is produced by the equipment of one modular cleanroom can be transferred to another modular cleanroom for additional processing. Additionally, systems and processes are described to generate models using machine learning techniques, where the models can be used to predict productivity and/or efficiency metrics for production lines of biotherapeutics. Further, models can be generated to control the operation of pieces of equipment included in the production lines.
Core Innovation
The patent describes a modular production facility to produce one or more biotherapeutics, using multiple modular cleanrooms arranged so that intermediate material is transferred between cleanrooms for successive processing. A first modular cleanroom includes a first plurality of pieces of equipment including a bioreactor to produce an effluent that includes a biotherapeutic. A second modular cleanroom includes a second plurality of pieces of equipment including at least a filter system to purify the effluent produced in the first modular cleanroom.
The production facility includes a staging area with a plurality of storage containers that store cell culture media and cell growth material for the bioreactor and store buffer solution for equipment in the first and second modular cleanrooms. The system and method obtain a first set of data indicating conditions of the bioreactor via at least one sensor or one or more external assays measured at different points in time during operation. The data is analyzed utilizing one or more inferential modeling techniques to determine process variables with at least a first threshold impact on a productivity metric related to the bioreactor effluent, and to determine control variables with at least a second threshold impact on the process variables.
The patent further describes generating a model that includes variables corresponding to the process variables and control variables, wherein the model predicts the productivity metric. Process data obtained from first and second pieces of equipment is applied to the model to determine values of the productivity metric, and responsive to values outside a threshold range, machine learning techniques are applied to determine at least one process variable to modify and at least one control variable to modify to cause additional values of the at least one process variable to change.
Control signals indicating control settings are sent to one or more pieces of equipment to modify the control variable in a manner that modifies the productivity metric, and operation of the pieces of equipment is caused to change based on the control signals.
Claims Coverage
The partial content provides two independent claims, covering a system and a method, each centered on modular cleanrooms plus inferential modeling and machine-learning-driven model-based control using threshold impacts on a productivity metric. Across the independent claims, the core inventive features number at least 5 per claim: modular cleanroom architecture, staging storage containers, inferential modeling to identify threshold-impact variables, a model predicting a productivity metric, and closed-loop threshold-responsive control via machine learning and control signals.
Modular cleanroom production facility with bioreactor effluent purifying filter system
A production facility includes a first modular cleanroom with a first plurality of pieces of equipment including a bioreactor to produce an effluent that includes a biotherapeutic, and a second modular cleanroom with a second plurality of pieces of equipment including at least a filter system to purify the effluent produced by the first plurality of pieces of equipment.
Staging area storage containers for media, growth material, and buffer solution
A staging area includes a plurality of storage containers with a first portion storing cell culture media and cell growth material for the bioreactor and a second portion storing buffer solution for at least one piece of equipment in the first plurality and for at least one piece of equipment in the second plurality.
Inferential modeling of threshold-impact process variables and control variables
The system obtains a first set of data indicating conditions of the bioreactor via at least one sensor or one or more external assays, analyzes the first set of data utilizing one or more inferential modeling techniques to determine one or more process variables having at least a first threshold impact on a productivity metric, and analyzes the first set of data to determine one or more control variables having at least a second threshold impact on the one or more process variables.
Model predicting productivity metric from process and control variables
A model is generated that includes variables corresponding to the one or more process variables and the one or more control variables, wherein the model predicts the productivity metric.
Threshold-responsive machine learning selection of variables and control signals
Responsive to determining that at least a portion of the values of the productivity metric are outside of a threshold range of values, at least one process variable is determined to modify using one or more machine learning techniques to change the productivity metric, at least one control variable is determined to modify to cause additional values of the at least one process variable to change, and control signals are sent indicating control settings of the one or more pieces of equipment to modify the at least one control variable in a manner that modifies the productivity metric and causes operation of the pieces of equipment to change based on the control signals.
Bioreactor located in first modular cleanroom obtaining media, growth material, and buffer from staging containers
Obtaining, by a bioreactor located in a first modular cleanroom of a production facility, cell culture media, cell growth material, and a buffer solution from a plurality of storage containers located in a staging area, wherein the first modular cleanroom includes a first plurality of pieces of equipment and a first portion of the storage containers supply the cell culture media and the cell growth material while a second portion supplies the buffer solution.
Purifying effluent in second modular cleanroom including filter system
Purifying, by a second plurality of pieces of equipment located in a second modular cleanroom of the production facility, an effluent produced by the first plurality of pieces of equipment, wherein the second plurality includes at least a filter system and the buffer solution is supplied from the second portion of the storage containers to at least one piece of equipment included in the second plurality.
Computing system closed-loop inferential modeling and machine-learning-driven control
Obtaining a first set of data indicating conditions of the bioreactor via at least one sensor or one or more external assays; analyzing the first set of data using one or more inferential modeling techniques to determine process variables and control variables with threshold impacts; generating a model predicting the productivity metric; obtaining process data; applying process data to the model; and responsive to the productivity metric outside a threshold range, using one or more machine learning techniques to determine at least one process variable and determining control variables, sending control signals indicating control settings, and causing operation of the pieces of equipment to change based on the control signals.
In the provided partial content, the independent claims share a common combination of modular cleanroom system architecture with a computational closed-loop control framework. The inventive core is identifying threshold-impact process variables and control variables through inferential modeling, generating a model to predict a productivity metric, and using machine learning plus threshold checks to determine variable modifications and send control signals that change equipment operation in order to modify the productivity metric.
Stated Advantages
Not explicitly described in patent.
Documented Applications
Not explicitly described in patent.
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