Product Purity Prediction and Anomaly Detection for an Automated Peptide Manufacturing Platform

This thesis aims to develop and deploy a method of predicting product purity and automating anomaly detection for Mytide Therapeutics’ peptide manufacturing platform. A baseline study revealed how early purity prediction and anomaly reporting could decrease the production cycle time, manual data rev...

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Bibliographic Details
Main Author: Yang, Liudi
Other Authors: Anthony, Brian
Format: Thesis
Published: Massachusetts Institute of Technology 2025
Online Access:https://hdl.handle.net/1721.1/158317
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author Yang, Liudi
author2 Anthony, Brian
author_facet Anthony, Brian
Yang, Liudi
author_sort Yang, Liudi
collection MIT
description This thesis aims to develop and deploy a method of predicting product purity and automating anomaly detection for Mytide Therapeutics’ peptide manufacturing platform. A baseline study revealed how early purity prediction and anomaly reporting could decrease the production cycle time, manual data review, and chemical waste produced by the synthesis process. The most important tool for making purity predictions is UV absorption on the byproducts and excess reagents that come out of the reactor, where the peptides are made. A large part of this thesis was improving the quality of the UV data in order to make purity predictions using the improved UV traces. Sensor data from historical runs, including pressure, temperature, and flow rates, were analyzed to characterize several common anomalies. The reporting system takes in live data and alerts the relevant parties when the limits are reached, so that corrective action can be implemented quickly. The anomaly tracking code also generates a report to either be viewed on the user interface or stored in the backend database with the run’s historical data. Implementation of the described system improvements had several positive impacts on the workflow. The live anomaly alerts allowed for issues to be reported to the relevant parties upon occurrence, which increased the uptime of the system. The anomaly report, which is tagged to each peptide synthesis run, allows for historical data evaluation and easy decision-making for advancing the peptide to the next step of the process. The purity prediction allowed for earlier identification of certain poor-purity peptides by 27% of the production time. Together, these system improvements helped to advance the company’s peptide manufacturing platform towards total automated decision-making.
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spelling mit-1721.1/1583172025-03-05T15:27:07Z Product Purity Prediction and Anomaly Detection for an Automated Peptide Manufacturing Platform Yang, Liudi Anthony, Brian Massachusetts Institute of Technology. Department of Mechanical Engineering This thesis aims to develop and deploy a method of predicting product purity and automating anomaly detection for Mytide Therapeutics’ peptide manufacturing platform. A baseline study revealed how early purity prediction and anomaly reporting could decrease the production cycle time, manual data review, and chemical waste produced by the synthesis process. The most important tool for making purity predictions is UV absorption on the byproducts and excess reagents that come out of the reactor, where the peptides are made. A large part of this thesis was improving the quality of the UV data in order to make purity predictions using the improved UV traces. Sensor data from historical runs, including pressure, temperature, and flow rates, were analyzed to characterize several common anomalies. The reporting system takes in live data and alerts the relevant parties when the limits are reached, so that corrective action can be implemented quickly. The anomaly tracking code also generates a report to either be viewed on the user interface or stored in the backend database with the run’s historical data. Implementation of the described system improvements had several positive impacts on the workflow. The live anomaly alerts allowed for issues to be reported to the relevant parties upon occurrence, which increased the uptime of the system. The anomaly report, which is tagged to each peptide synthesis run, allows for historical data evaluation and easy decision-making for advancing the peptide to the next step of the process. The purity prediction allowed for earlier identification of certain poor-purity peptides by 27% of the production time. Together, these system improvements helped to advance the company’s peptide manufacturing platform towards total automated decision-making. M.Eng. 2025-03-05T15:27:05Z 2025-03-05T15:27:05Z 2020-09 2025-03-04T16:26:44.036Z Thesis https://hdl.handle.net/1721.1/158317 In Copyright - Educational Use Permitted Copyright MIT http://rightsstatements.org/page/InC-EDU/1.0/ application/pdf Massachusetts Institute of Technology
spellingShingle Yang, Liudi
Product Purity Prediction and Anomaly Detection for an Automated Peptide Manufacturing Platform
title Product Purity Prediction and Anomaly Detection for an Automated Peptide Manufacturing Platform
title_full Product Purity Prediction and Anomaly Detection for an Automated Peptide Manufacturing Platform
title_fullStr Product Purity Prediction and Anomaly Detection for an Automated Peptide Manufacturing Platform
title_full_unstemmed Product Purity Prediction and Anomaly Detection for an Automated Peptide Manufacturing Platform
title_short Product Purity Prediction and Anomaly Detection for an Automated Peptide Manufacturing Platform
title_sort product purity prediction and anomaly detection for an automated peptide manufacturing platform
url https://hdl.handle.net/1721.1/158317
work_keys_str_mv AT yangliudi productpuritypredictionandanomalydetectionforanautomatedpeptidemanufacturingplatform