MLOps from a Healthcare Perspective

by datatabloid_difmmk

This article data science blogthon.

prologue

Healthcare is an important part of human life. It’s also another sector disrupted by technology. Billions of clinical and laboratory activities take place in many parts of the world, generating vast amounts of data. Data science is a new scientific field that is still growing rapidly. A lot has been observed in science, but statistics show that it’s just the beginning. Data science can do its best because there is a huge amount of data. Given all the potential of MLOps and the sensitive nature of healthcare, integrating the two is an area of ​​research that needs more work.

Unlike other fields applying data science, health requires more attention and research. And the rapid growth of data science has destabilized standards and operations. It lacks a universal harmonious pattern of unison that governs the lifecycle of data generation and management, right down to modeling and deployment. Using medical imaging, predictive diagnostics, and a few other areas, technology has found its way to health in many ways, of which data science is just one. However, the global research consensus has its weaknesses. Therefore, you need to be able to deploy and manage machine learning models for use in clinical workflows.
A common statistic is that about 90% of models never make it to production and only the remaining 10% are managed. fair enough. This means that out of this 10%, an even smaller proportion of the health sector can be managed by a health data scientist. To do this, it becomes a requirement to utilize comprehensive MLOps. A data scientist must integrate his regular DevOps procedures with vast amounts of data from health sources to develop and monitor model performance to implement workflows that improve health.

Benefits of MLOps in Health

In traditional medicine, practitioners manually inspect and examine images to detect complications. This was at the mercy of human accuracy and experience. Using computer vision in deep learning and data science can circumvent these shortcomings and provide more accurate diagnostics.

A doctor’s job is very similar to a data analysis procedure. Physicians use the variables they find to examine their patients for insight. He collects these variables and states the most probable outcome. This means that simulations in the health sector are very typical and therefore promising.

If MLOps were studied sector by sector and given that sector to health, the promise is endless. Predictive analytics becomes very comfortable and very effective. This is one of the most popular areas of health analysis.

Source: TheMathCompany

we are not safe. But what doctors do from physical diagnoses, and even from tests and scans, is to make predictions from what they find. There is a reason. This is similar to a predictive model where the model predicts incorrectly for different reasons. In the case of doctors, it may be human error from visual inspection and measurement materials during observation and examination. Or even with a lower skill set. Predictive models use historical data, learn from it, find patterns, and make predictions from it. This is so that doctors, learning from past patients who have not survived surgery, can predict the likelihood of success in the next surgery.

A medical data science system that can take advantage of good MLOps is likely to outperform some of the best human healthcare workers. Just as AI games have surpassed the coolest human game grandmasters, so can health. This reduces costs and saves time. This indicates both preventive and corrective actions for human health. And what could be better than a world so medically advanced?

Healthcare data scientist jobs

As you can imagine, the health data scientist’s job is tougher. It can get very complicated. Domain knowledge is essential in all areas of data science. It comes with a lot of necessary skills and responsibilities. Apart from math, statistics, and programming skills, health data scientists require a certain level of medical knowledge and understanding of the healthcare industry. Regardless of the field, the data scientist’s role is to collect, collate, and report on data.

For patient privacy and regulatory compliance, the Health Insurance Portability and Accountability Act of 1996 (HIPAA) and Payment Card Industry (PCI) have made doing data jobs very complex. Data scientists are expected to develop and deploy models using a robust MLOps framework that adheres to protocols and privacy regulations.

Healthcare data scientists develop predictive and modeling programs designed to shape the analysis of medical records and health information. As always, DS needs to look for insights or build models, but when it comes to health, scientists are more focused on directly replicating doctors simply by making diagnoses and prescriptions. increase.

Medical data scientists using MLOps can work in a more organized workflow. From developing tools to collect data to analyzing this information, these include medical records, health plans, documents such as bills, and building models to identify patterns or trends in data and improve systems. Recommendations for how the information may be used to robust model. We are getting to the point where these models are ready to use and maintain.

MLOps framework for healthcare

Health domain earnings workflow. This shows how robust MLOps are in general and in important areas such as healthcare. A model building pipeline helps you achieve the following:

  1. Health data version control. Data generation in medical systems can be non-static. Even after collecting the data and starting the development cycle, the hospital has not shut down its systems and activities, so new data can be created from the working environment. This creates the need to tag these different sets of generated data. The dataset should be treated accordingly and additional data should be added using the best procedure. Data versioning is a means of tracking all changes over time.
  2. Validation of health data. Validation of data is essential to process and make sense of the entire project. In medicine, it is important to go through a process to ensure that the data has gone through a process to ensure useful data quality.
  3. Efficient data preprocessing; Data preprocessing refers to activities on raw data to prepare it for other data processing. Data preprocessing is necessary to manipulate or remove unwanted content from data before using it in production to improve performance.
  4. Effective training of machine learning models; After completing the previous activities, you can train your model to learn from your health data and make it useful for your insights.
  5. Track model training. Model training is not enough yet. Further activities are needed to monitor the model training process. This is the edge of MLOps. The life cycle of Ml is shown in more detail, making the results more robust.
  6. Analysis and validation of trained and tuned models. This is another advantage of using MLOps. Unlike normal training and testing, we also check if the model is valid. If not, it will be adjusted to meet your objectives. Model validation evaluates whether the model output is reasonable. Data that appear to make sense are critically checked for meaning to avoid misleading results and increase relevance.
  7. Deploying validated models. Once you have confirmed that your model has been sufficiently trained, tested, fine-tuned and validated as necessary, you can move it into production. Healthcare systems can now have systems that work for their needs and more. Data scientists can continue to use the model, and it can be used directly by healthcare professionals.
  8. Scaling of deployed models. In a normal machine learning workflow it was all s, but in MLOps we continue the cycle with calls. Scaling allows the model to be adjusted even if new needs may arise that have not been addressed. This is robustness. The model is therefore scalable.
  9. Capturing new training data and model performance: Stages work with versioning to ensure that new data is captured and reused like a loop. Suppose someone uses the model and inputs their own data to get the results. This data is stored for ongoing model upgrades and improvements even after they have been deployed.

The points above show that MLOps are robust and welcomed in all M-learning sectors using Mlearning.

Using MLOps for post-acute wound care

TheMathCompany presents an approach to post-acute wound care. The following figure outlines the MLOps model that streamlines the post-acute space process.

MLOps for post-acute wound care
Source: TheMathCompany

1. Develop a machine learning model (to predict wound healing time). It is robust and dynamic while maintaining generality levels across defined wound-level factor categories.

2. Integrate patient-level and visit-level factors into the model to have greater impact on independent variables across defined wound-level categories.

3. Monitor, tune, validate, and add full machine learning models using live EHR data without reintegrating the results into the EHR until appropriate validity is confirmed. The model then predicts wound healing time to create a more accurate predictive tool.

4. Create a dynamic and predictive healing trajectory using a wound healing time model.

5. Concurrently develop a ‘progression’ metric representing the weighted wound level variables that contribute to the measurement and determination of change over time, and define a definitive metric of ‘outcome’.

6. Measure treatment effectiveness and interventions by tracking progress and looking at variables that change over time. This allows for wound-level factors (wound type, severity, anatomic location, etc.), patient-level factors (comorbidities, medications, etc.), and visit-level factors (BMI measurement, then monitoring, analysis, etc.). , and once acceptable efficacy is established through adjustments, introduce a production pilot.

7. Add a cost variable to the dressings and interventions used so that the EHR can simultaneously determine clinical outcomes and cost-effectiveness. It can also include a hybrid of these factors for a data-driven treatment recommendation engine that enhances physician decision-making.

Conclusion

Health data science is a new field. Health data scientists use data science tools and skills to manage and analyze large and diverse data sets across healthcare systems. Normally, DS would have to conduct research or develop models, but in the field of health, scientists are more focused on accurately simulating doctors just by diagnosing and prescribing treatments. . The process of data analysis seems very similar to what a doctor does. Physicians use factors at their disposal to explore patient insights. He compiles these variables and comes up with the most likely scenario as a conclusion. The health industry is very typical and very promising when simulated.

Important points:

  • Traditional medical practitioners manually inspect and examine images with their own eyes to find complications at the mercy of human precision.
  • If MLOps were studied sector by sector and given that sector to health, the promise is endless. Predictive analytics can be very effective. Predictive analytics is a popular area of ​​health analytics.
  • Health data science systems that can harness superior MLOps have a good chance of surpassing even the best human healthcare workers.
  • Healthcare data scientists can work more systematically with MLOps. From developing tools to collect data, to analyzing documents such as medical records, health insurance and bills, building models to identify trends in data, and recommending how information is used to improve systems. to.

Media shown in this article are not owned by Analytics Vidhya and are used at the author’s discretion.

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