Scientists and engineers in the biotech and pharmaceutical industries use MATLAB and Simulink for multidisciplinary data analysis and end-to-end workflows.
With MATLAB, scientists and engineers can:
- Hybridize data from many data streams, including signal, image, text, and genetic
- Optimize pharmaceutical production through process engineering
- Perform modeling and simulation for drug discovery and development
- Design, implement, and deploy code to control new medical devices
- Create automatic output reports in Adobe Acrobat, or Microsoft Word and PowerPoint file formats
Biomedical and Health Data Analysis
Using MATLAB, scientists and analysts can:
- Explore and clean data sets in biotech and pharmaceutical research
- Use app-based workflows to develop streamlined analysis schemes, and then scale and deploy the schemes in the cloud
- Synthesize multimodal data sources, including signal, image, date, device, genetic, and Internet of Things to build predictive analytical models
- Parallelize analysis to any number of computational nodes using nearly identical syntax as desktop approaches to scale from desktop development to high-performance computing clusters
Drug Discovery and Development
Using MATLAB, scientists and modeling teams can:
- Model and simulate PK/PD and quantitative systems pharmacology systems using SimBiology for simulated drug studies and parameter sensitivity analysis
- Develop predictive mathematical models for assessing drug efficacy and safety, target feasibility, and optimizing dose schedules
- Hybridize data streams for precision medicine
- Interact with existing databases to explore new applications of existing drugs
- Provide image quantification and model fitting in biodistribution studies
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Pharmaceutical Manufacturing
With MATLAB and Simulink, engineers can:
- Optimize yield during drug manufacturing, lowering costs and time-to-market
- Create digital twins in an industrial Internet of Things architecture to analyze real-time performance, improve operations, and perform predictive maintenance
- Use physics-based modeling, data-driven empirical modeling, or a combination thereof to increase manufacturing yield and quality
Preclinical and Clinical Research and Development
Scientists, engineers, and clinical researchers use MATLAB to:
- Calculate and determine relative importance of image features such as radiomics analysis
- Query databases of labeled legacy data and use deep learning to create auto segmentation tools
- Analyze whole slide data, including cell classification and semantic segmentation
- Parse, load, and analyze DICOM images
Learn More
- Deep Learning Overview for Medical Images | Deep Learning Webinars 2020, Part 6 (39:57)
- Developing in vivo Functional Imaging Technology with Micron-Scale Resolution Using Optical Coherence Tomography
- With MATLAB on Domino Data Lab, leverage GPU computing to accelerate image processing and deep learning
Biotech Device Development
With Model-Based Design, biotech device engineers can:
- Design and test medical devices using simulations, which reduces development time and enables early verification and validation at the system level
- Deploy software and algorithms on instruments in production using automatic code generation
- Create required technical documentation from software development and testing for compliance with FDA regulations and industry standards such as IEC 62304
Learn More
- MATLAB and Simulink for Medical Devices
- Analyze Medical Images in DICOM Format
- Mathematical Modeling for Design and Validation of Medical Devices (44:19)
- FDA Software Validation with MATLAB and Simulink
- Develop Medical Device Software in Compliance with the IEC 62304 Standard
- Developing IEC 62304-Compliant Embedded Software for Medical Devices
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