Demystifying FDA's Approach to AI/ML in Healthcare: Your Ultimate Guide

Gaurav Agarwal

Apr 4, 2024

As we delve into the realm of cutting-edge artificial intelligence (AI) and machine learning (ML) technologies within the healthcare sector, it becomes imperative to navigate the regulatory landscape, particularly under the purview of the U.S. Food and Drug Administration (FDA). The FDA has recently released a series of discussion papers shedding light on their current perspectives and considerations surrounding the integration of AI/ML in healthcare.

Navigating the Regulatory Terrain

Software as a Medical Device (SaMD) constitutes software intended for medical purposes, independent of hardware medical devices. The International Medical Device Regulators Forum (IMDRF) delineates SaMD as software executing medical functions without being embedded in a physical device. Examples encompass mobile medical applications, clinical decision support software, and AI/ML-based algorithms for medical image analysis, diagnosis, or treatment recommendations. 

Presently, AI/ML-based SaMD must adhere to the same regulatory prerequisites as traditional medical devices. This entails establishing a quality system (as per 21 CFR 820) and undergoing premarket review and clearance/approval by the FDA based on risk categorisation. The IMDRF has devised a risk categorisation framework stratifying SaMD into four categories (I-IV) contingent on the significance of the information provided and the healthcare situation's state.

Image Source: FDA Proposed Regulatory Framework

For SaMD necessitating premarket submission (e.g., 510(k), De Novo, or PMA), the FDA typically reviews and clears/approves a "locked" AI/ML algorithm. A locked algorithm yields consistent output for a given set of inputs and remains static over time. Substantial alterations to the locked algorithm generally mandate a new premarket submission and FDA review.

However, this framework isn't ideally suited for the dynamic nature of AI/ML algorithms, which continuously learn and adapt post-market. The iterative, autonomous, and adaptive attributes necessitate a novel regulatory approach facilitating swift product enhancement cycles while upholding safety and effectiveness standards.

Recognising the Potential and Crafting Future Regulations

The FDA acknowledges the transformative potential of AI/ML-based SaMD in healthcare, envisaging advancements in disease detection, diagnosis accuracy, and personalised therapeutics. However, the current regulatory paradigm presents a challenge in balancing the benefits of continual learning with the imperative of regulatory oversight to mitigate patient risks.

In response, the FDA has proposed a novel Total Product Lifecycle (TPLC) regulatory approach. This approach evaluates a company's culture of quality and organisational excellence, ensuring high-quality software development, testing, and performance monitoring. Key tenets of this approach include:

  1. Establishing clear expectations regarding quality systems and good machine learning practices (GMLP)

    Image Source: FDA Proposed Regulatory Framework


  2. Conducting premarket review with optional submission of predetermined modification plans by manufacturers.

  3. Mandating manufacturers to monitor and manage modification risks per predetermined plans.

  4. Enabling transparency and real-world performance reporting.

Central to this approach is the concept of a "predetermined change control plan" (PCCP), which manufacturers can submit during premarket review. The PCCP delineates anticipated modifications and protocols for implementation and validation, facilitating controlled iteration while ensuring safety and effectiveness.

Crafting a Predetermined Change Control Plan

The report proposes that a PCCP consists of three main components:

1) a detailed description of planned modifications 

2) a modification protocol outlining verification/validation activities for the modifications, and 

3) an impact assessment evaluating the benefits/risks of the modifications.

Image Source: FDA Proposed Regulatory Framework

Establishing a PCCP involves clearly defining the scope of anticipated modifications and documenting robust procedures in the Modification Protocol to ensure modifications remain safe and effective. The level of detail required may depend on the SaMD's risk category. 

When submitting for marketing authorization, manufacturers can identify if they plan to utilise a PCCP by including the Description of Modifications and Modification Protocol sections in their submission. FDA's review and authorization of an acceptable PCCP would allow the manufacturer to implement certain types of modifications described in the plan without further FDA review, as long as they follow the specified protocols and document their modification activities.

The Description of Modifications section should define the goals and boundaries for what types of modifications may occur, such as performance enhancements, new data inputs, or refined intended uses. Providing clear examples is recommended.

The Modification Protocol should specify how the manufacturer will implement modifications reliably. It should cover:

1) Data management practices for curating, maintaining, and controlling training/test datasets

2) Re-training practices on when/how the algorithm will be re-trained 

3) Performance evaluation protocols including metrics, analysis methods, predetermined performance targets

4) Update procedures for testing, deployment, versioning, and communication of algorithm updates

There must be traceability mapping the specific modification types described to the corresponding methods detailed in the Modification Protocol.

The PCCP framework aims to enable controlled iteration of AI/ML SaMD to realise performance improvements while enforcing pre-specified processes and guardrails to manage risks as the device evolves after initial marketing. Manufacturer adherence to approved PCCPs provides ongoing reasonable assurance of safety and effectiveness.

How can RagaAI help here?

Analysis of published resources shows RagaAI platform can help unlock tremendous values with regards to AI/ML compliance dimensions not only now but in future too.

Under the current overarching regulations RagaAI can help determine a locked SAMD and Good ML Practices, helping you achieve compliance with FDA.

The above image shows mapping of RagaAI offerings against GMLP practices. Source: RagaAI

RagaAI also provides a concrete framework for complying with the practices for AI/ML in Drug Development, which have been formulated with a risk-based approach.

Image Source: RagaAI

The website docs enlist and meticulously present the various tests which can be used to comply with different aspects of FDA regulations for both drug development and SaMD.

Conclusion

While this article only covers the AI Compliance landscape in healthcare from the lens of FDA, there are various regulatory regimes being crafted across the globe. FDA, being on the top of healthcare regulations, provides the best view into how the healthcare industry can approach enabling safe and ethical use of AI in applications.  As the healthcare industry is a very high-risk sector, the technology deployed at every step needs to be safe and repairable. Being highly comprehensive, this set of regulations can also be extrapolated, on a high level, to other acute-risk industries with ease. 

It is natural to have a lot of questions in your mind after reading this, and unfortunately we cannot cover all the ground in this article. 

But we wholeheartedly extend an invitation to share our expertise with whoever wants to take this wobbly ride of AI governance in Healthcare.

Get in touch with our Experts. 

Want to know more ? Get in touch with our experts!

As we delve into the realm of cutting-edge artificial intelligence (AI) and machine learning (ML) technologies within the healthcare sector, it becomes imperative to navigate the regulatory landscape, particularly under the purview of the U.S. Food and Drug Administration (FDA). The FDA has recently released a series of discussion papers shedding light on their current perspectives and considerations surrounding the integration of AI/ML in healthcare.

Navigating the Regulatory Terrain

Software as a Medical Device (SaMD) constitutes software intended for medical purposes, independent of hardware medical devices. The International Medical Device Regulators Forum (IMDRF) delineates SaMD as software executing medical functions without being embedded in a physical device. Examples encompass mobile medical applications, clinical decision support software, and AI/ML-based algorithms for medical image analysis, diagnosis, or treatment recommendations. 

Presently, AI/ML-based SaMD must adhere to the same regulatory prerequisites as traditional medical devices. This entails establishing a quality system (as per 21 CFR 820) and undergoing premarket review and clearance/approval by the FDA based on risk categorisation. The IMDRF has devised a risk categorisation framework stratifying SaMD into four categories (I-IV) contingent on the significance of the information provided and the healthcare situation's state.

Image Source: FDA Proposed Regulatory Framework

For SaMD necessitating premarket submission (e.g., 510(k), De Novo, or PMA), the FDA typically reviews and clears/approves a "locked" AI/ML algorithm. A locked algorithm yields consistent output for a given set of inputs and remains static over time. Substantial alterations to the locked algorithm generally mandate a new premarket submission and FDA review.

However, this framework isn't ideally suited for the dynamic nature of AI/ML algorithms, which continuously learn and adapt post-market. The iterative, autonomous, and adaptive attributes necessitate a novel regulatory approach facilitating swift product enhancement cycles while upholding safety and effectiveness standards.

Recognising the Potential and Crafting Future Regulations

The FDA acknowledges the transformative potential of AI/ML-based SaMD in healthcare, envisaging advancements in disease detection, diagnosis accuracy, and personalised therapeutics. However, the current regulatory paradigm presents a challenge in balancing the benefits of continual learning with the imperative of regulatory oversight to mitigate patient risks.

In response, the FDA has proposed a novel Total Product Lifecycle (TPLC) regulatory approach. This approach evaluates a company's culture of quality and organisational excellence, ensuring high-quality software development, testing, and performance monitoring. Key tenets of this approach include:

  1. Establishing clear expectations regarding quality systems and good machine learning practices (GMLP)

    Image Source: FDA Proposed Regulatory Framework


  2. Conducting premarket review with optional submission of predetermined modification plans by manufacturers.

  3. Mandating manufacturers to monitor and manage modification risks per predetermined plans.

  4. Enabling transparency and real-world performance reporting.

Central to this approach is the concept of a "predetermined change control plan" (PCCP), which manufacturers can submit during premarket review. The PCCP delineates anticipated modifications and protocols for implementation and validation, facilitating controlled iteration while ensuring safety and effectiveness.

Crafting a Predetermined Change Control Plan

The report proposes that a PCCP consists of three main components:

1) a detailed description of planned modifications 

2) a modification protocol outlining verification/validation activities for the modifications, and 

3) an impact assessment evaluating the benefits/risks of the modifications.

Image Source: FDA Proposed Regulatory Framework

Establishing a PCCP involves clearly defining the scope of anticipated modifications and documenting robust procedures in the Modification Protocol to ensure modifications remain safe and effective. The level of detail required may depend on the SaMD's risk category. 

When submitting for marketing authorization, manufacturers can identify if they plan to utilise a PCCP by including the Description of Modifications and Modification Protocol sections in their submission. FDA's review and authorization of an acceptable PCCP would allow the manufacturer to implement certain types of modifications described in the plan without further FDA review, as long as they follow the specified protocols and document their modification activities.

The Description of Modifications section should define the goals and boundaries for what types of modifications may occur, such as performance enhancements, new data inputs, or refined intended uses. Providing clear examples is recommended.

The Modification Protocol should specify how the manufacturer will implement modifications reliably. It should cover:

1) Data management practices for curating, maintaining, and controlling training/test datasets

2) Re-training practices on when/how the algorithm will be re-trained 

3) Performance evaluation protocols including metrics, analysis methods, predetermined performance targets

4) Update procedures for testing, deployment, versioning, and communication of algorithm updates

There must be traceability mapping the specific modification types described to the corresponding methods detailed in the Modification Protocol.

The PCCP framework aims to enable controlled iteration of AI/ML SaMD to realise performance improvements while enforcing pre-specified processes and guardrails to manage risks as the device evolves after initial marketing. Manufacturer adherence to approved PCCPs provides ongoing reasonable assurance of safety and effectiveness.

How can RagaAI help here?

Analysis of published resources shows RagaAI platform can help unlock tremendous values with regards to AI/ML compliance dimensions not only now but in future too.

Under the current overarching regulations RagaAI can help determine a locked SAMD and Good ML Practices, helping you achieve compliance with FDA.

The above image shows mapping of RagaAI offerings against GMLP practices. Source: RagaAI

RagaAI also provides a concrete framework for complying with the practices for AI/ML in Drug Development, which have been formulated with a risk-based approach.

Image Source: RagaAI

The website docs enlist and meticulously present the various tests which can be used to comply with different aspects of FDA regulations for both drug development and SaMD.

Conclusion

While this article only covers the AI Compliance landscape in healthcare from the lens of FDA, there are various regulatory regimes being crafted across the globe. FDA, being on the top of healthcare regulations, provides the best view into how the healthcare industry can approach enabling safe and ethical use of AI in applications.  As the healthcare industry is a very high-risk sector, the technology deployed at every step needs to be safe and repairable. Being highly comprehensive, this set of regulations can also be extrapolated, on a high level, to other acute-risk industries with ease. 

It is natural to have a lot of questions in your mind after reading this, and unfortunately we cannot cover all the ground in this article. 

But we wholeheartedly extend an invitation to share our expertise with whoever wants to take this wobbly ride of AI governance in Healthcare.

Get in touch with our Experts. 

Want to know more ? Get in touch with our experts!

As we delve into the realm of cutting-edge artificial intelligence (AI) and machine learning (ML) technologies within the healthcare sector, it becomes imperative to navigate the regulatory landscape, particularly under the purview of the U.S. Food and Drug Administration (FDA). The FDA has recently released a series of discussion papers shedding light on their current perspectives and considerations surrounding the integration of AI/ML in healthcare.

Navigating the Regulatory Terrain

Software as a Medical Device (SaMD) constitutes software intended for medical purposes, independent of hardware medical devices. The International Medical Device Regulators Forum (IMDRF) delineates SaMD as software executing medical functions without being embedded in a physical device. Examples encompass mobile medical applications, clinical decision support software, and AI/ML-based algorithms for medical image analysis, diagnosis, or treatment recommendations. 

Presently, AI/ML-based SaMD must adhere to the same regulatory prerequisites as traditional medical devices. This entails establishing a quality system (as per 21 CFR 820) and undergoing premarket review and clearance/approval by the FDA based on risk categorisation. The IMDRF has devised a risk categorisation framework stratifying SaMD into four categories (I-IV) contingent on the significance of the information provided and the healthcare situation's state.

Image Source: FDA Proposed Regulatory Framework

For SaMD necessitating premarket submission (e.g., 510(k), De Novo, or PMA), the FDA typically reviews and clears/approves a "locked" AI/ML algorithm. A locked algorithm yields consistent output for a given set of inputs and remains static over time. Substantial alterations to the locked algorithm generally mandate a new premarket submission and FDA review.

However, this framework isn't ideally suited for the dynamic nature of AI/ML algorithms, which continuously learn and adapt post-market. The iterative, autonomous, and adaptive attributes necessitate a novel regulatory approach facilitating swift product enhancement cycles while upholding safety and effectiveness standards.

Recognising the Potential and Crafting Future Regulations

The FDA acknowledges the transformative potential of AI/ML-based SaMD in healthcare, envisaging advancements in disease detection, diagnosis accuracy, and personalised therapeutics. However, the current regulatory paradigm presents a challenge in balancing the benefits of continual learning with the imperative of regulatory oversight to mitigate patient risks.

In response, the FDA has proposed a novel Total Product Lifecycle (TPLC) regulatory approach. This approach evaluates a company's culture of quality and organisational excellence, ensuring high-quality software development, testing, and performance monitoring. Key tenets of this approach include:

  1. Establishing clear expectations regarding quality systems and good machine learning practices (GMLP)

    Image Source: FDA Proposed Regulatory Framework


  2. Conducting premarket review with optional submission of predetermined modification plans by manufacturers.

  3. Mandating manufacturers to monitor and manage modification risks per predetermined plans.

  4. Enabling transparency and real-world performance reporting.

Central to this approach is the concept of a "predetermined change control plan" (PCCP), which manufacturers can submit during premarket review. The PCCP delineates anticipated modifications and protocols for implementation and validation, facilitating controlled iteration while ensuring safety and effectiveness.

Crafting a Predetermined Change Control Plan

The report proposes that a PCCP consists of three main components:

1) a detailed description of planned modifications 

2) a modification protocol outlining verification/validation activities for the modifications, and 

3) an impact assessment evaluating the benefits/risks of the modifications.

Image Source: FDA Proposed Regulatory Framework

Establishing a PCCP involves clearly defining the scope of anticipated modifications and documenting robust procedures in the Modification Protocol to ensure modifications remain safe and effective. The level of detail required may depend on the SaMD's risk category. 

When submitting for marketing authorization, manufacturers can identify if they plan to utilise a PCCP by including the Description of Modifications and Modification Protocol sections in their submission. FDA's review and authorization of an acceptable PCCP would allow the manufacturer to implement certain types of modifications described in the plan without further FDA review, as long as they follow the specified protocols and document their modification activities.

The Description of Modifications section should define the goals and boundaries for what types of modifications may occur, such as performance enhancements, new data inputs, or refined intended uses. Providing clear examples is recommended.

The Modification Protocol should specify how the manufacturer will implement modifications reliably. It should cover:

1) Data management practices for curating, maintaining, and controlling training/test datasets

2) Re-training practices on when/how the algorithm will be re-trained 

3) Performance evaluation protocols including metrics, analysis methods, predetermined performance targets

4) Update procedures for testing, deployment, versioning, and communication of algorithm updates

There must be traceability mapping the specific modification types described to the corresponding methods detailed in the Modification Protocol.

The PCCP framework aims to enable controlled iteration of AI/ML SaMD to realise performance improvements while enforcing pre-specified processes and guardrails to manage risks as the device evolves after initial marketing. Manufacturer adherence to approved PCCPs provides ongoing reasonable assurance of safety and effectiveness.

How can RagaAI help here?

Analysis of published resources shows RagaAI platform can help unlock tremendous values with regards to AI/ML compliance dimensions not only now but in future too.

Under the current overarching regulations RagaAI can help determine a locked SAMD and Good ML Practices, helping you achieve compliance with FDA.

The above image shows mapping of RagaAI offerings against GMLP practices. Source: RagaAI

RagaAI also provides a concrete framework for complying with the practices for AI/ML in Drug Development, which have been formulated with a risk-based approach.

Image Source: RagaAI

The website docs enlist and meticulously present the various tests which can be used to comply with different aspects of FDA regulations for both drug development and SaMD.

Conclusion

While this article only covers the AI Compliance landscape in healthcare from the lens of FDA, there are various regulatory regimes being crafted across the globe. FDA, being on the top of healthcare regulations, provides the best view into how the healthcare industry can approach enabling safe and ethical use of AI in applications.  As the healthcare industry is a very high-risk sector, the technology deployed at every step needs to be safe and repairable. Being highly comprehensive, this set of regulations can also be extrapolated, on a high level, to other acute-risk industries with ease. 

It is natural to have a lot of questions in your mind after reading this, and unfortunately we cannot cover all the ground in this article. 

But we wholeheartedly extend an invitation to share our expertise with whoever wants to take this wobbly ride of AI governance in Healthcare.

Get in touch with our Experts. 

Want to know more ? Get in touch with our experts!

As we delve into the realm of cutting-edge artificial intelligence (AI) and machine learning (ML) technologies within the healthcare sector, it becomes imperative to navigate the regulatory landscape, particularly under the purview of the U.S. Food and Drug Administration (FDA). The FDA has recently released a series of discussion papers shedding light on their current perspectives and considerations surrounding the integration of AI/ML in healthcare.

Navigating the Regulatory Terrain

Software as a Medical Device (SaMD) constitutes software intended for medical purposes, independent of hardware medical devices. The International Medical Device Regulators Forum (IMDRF) delineates SaMD as software executing medical functions without being embedded in a physical device. Examples encompass mobile medical applications, clinical decision support software, and AI/ML-based algorithms for medical image analysis, diagnosis, or treatment recommendations. 

Presently, AI/ML-based SaMD must adhere to the same regulatory prerequisites as traditional medical devices. This entails establishing a quality system (as per 21 CFR 820) and undergoing premarket review and clearance/approval by the FDA based on risk categorisation. The IMDRF has devised a risk categorisation framework stratifying SaMD into four categories (I-IV) contingent on the significance of the information provided and the healthcare situation's state.

Image Source: FDA Proposed Regulatory Framework

For SaMD necessitating premarket submission (e.g., 510(k), De Novo, or PMA), the FDA typically reviews and clears/approves a "locked" AI/ML algorithm. A locked algorithm yields consistent output for a given set of inputs and remains static over time. Substantial alterations to the locked algorithm generally mandate a new premarket submission and FDA review.

However, this framework isn't ideally suited for the dynamic nature of AI/ML algorithms, which continuously learn and adapt post-market. The iterative, autonomous, and adaptive attributes necessitate a novel regulatory approach facilitating swift product enhancement cycles while upholding safety and effectiveness standards.

Recognising the Potential and Crafting Future Regulations

The FDA acknowledges the transformative potential of AI/ML-based SaMD in healthcare, envisaging advancements in disease detection, diagnosis accuracy, and personalised therapeutics. However, the current regulatory paradigm presents a challenge in balancing the benefits of continual learning with the imperative of regulatory oversight to mitigate patient risks.

In response, the FDA has proposed a novel Total Product Lifecycle (TPLC) regulatory approach. This approach evaluates a company's culture of quality and organisational excellence, ensuring high-quality software development, testing, and performance monitoring. Key tenets of this approach include:

  1. Establishing clear expectations regarding quality systems and good machine learning practices (GMLP)

    Image Source: FDA Proposed Regulatory Framework


  2. Conducting premarket review with optional submission of predetermined modification plans by manufacturers.

  3. Mandating manufacturers to monitor and manage modification risks per predetermined plans.

  4. Enabling transparency and real-world performance reporting.

Central to this approach is the concept of a "predetermined change control plan" (PCCP), which manufacturers can submit during premarket review. The PCCP delineates anticipated modifications and protocols for implementation and validation, facilitating controlled iteration while ensuring safety and effectiveness.

Crafting a Predetermined Change Control Plan

The report proposes that a PCCP consists of three main components:

1) a detailed description of planned modifications 

2) a modification protocol outlining verification/validation activities for the modifications, and 

3) an impact assessment evaluating the benefits/risks of the modifications.

Image Source: FDA Proposed Regulatory Framework

Establishing a PCCP involves clearly defining the scope of anticipated modifications and documenting robust procedures in the Modification Protocol to ensure modifications remain safe and effective. The level of detail required may depend on the SaMD's risk category. 

When submitting for marketing authorization, manufacturers can identify if they plan to utilise a PCCP by including the Description of Modifications and Modification Protocol sections in their submission. FDA's review and authorization of an acceptable PCCP would allow the manufacturer to implement certain types of modifications described in the plan without further FDA review, as long as they follow the specified protocols and document their modification activities.

The Description of Modifications section should define the goals and boundaries for what types of modifications may occur, such as performance enhancements, new data inputs, or refined intended uses. Providing clear examples is recommended.

The Modification Protocol should specify how the manufacturer will implement modifications reliably. It should cover:

1) Data management practices for curating, maintaining, and controlling training/test datasets

2) Re-training practices on when/how the algorithm will be re-trained 

3) Performance evaluation protocols including metrics, analysis methods, predetermined performance targets

4) Update procedures for testing, deployment, versioning, and communication of algorithm updates

There must be traceability mapping the specific modification types described to the corresponding methods detailed in the Modification Protocol.

The PCCP framework aims to enable controlled iteration of AI/ML SaMD to realise performance improvements while enforcing pre-specified processes and guardrails to manage risks as the device evolves after initial marketing. Manufacturer adherence to approved PCCPs provides ongoing reasonable assurance of safety and effectiveness.

How can RagaAI help here?

Analysis of published resources shows RagaAI platform can help unlock tremendous values with regards to AI/ML compliance dimensions not only now but in future too.

Under the current overarching regulations RagaAI can help determine a locked SAMD and Good ML Practices, helping you achieve compliance with FDA.

The above image shows mapping of RagaAI offerings against GMLP practices. Source: RagaAI

RagaAI also provides a concrete framework for complying with the practices for AI/ML in Drug Development, which have been formulated with a risk-based approach.

Image Source: RagaAI

The website docs enlist and meticulously present the various tests which can be used to comply with different aspects of FDA regulations for both drug development and SaMD.

Conclusion

While this article only covers the AI Compliance landscape in healthcare from the lens of FDA, there are various regulatory regimes being crafted across the globe. FDA, being on the top of healthcare regulations, provides the best view into how the healthcare industry can approach enabling safe and ethical use of AI in applications.  As the healthcare industry is a very high-risk sector, the technology deployed at every step needs to be safe and repairable. Being highly comprehensive, this set of regulations can also be extrapolated, on a high level, to other acute-risk industries with ease. 

It is natural to have a lot of questions in your mind after reading this, and unfortunately we cannot cover all the ground in this article. 

But we wholeheartedly extend an invitation to share our expertise with whoever wants to take this wobbly ride of AI governance in Healthcare.

Get in touch with our Experts. 

Want to know more ? Get in touch with our experts!

As we delve into the realm of cutting-edge artificial intelligence (AI) and machine learning (ML) technologies within the healthcare sector, it becomes imperative to navigate the regulatory landscape, particularly under the purview of the U.S. Food and Drug Administration (FDA). The FDA has recently released a series of discussion papers shedding light on their current perspectives and considerations surrounding the integration of AI/ML in healthcare.

Navigating the Regulatory Terrain

Software as a Medical Device (SaMD) constitutes software intended for medical purposes, independent of hardware medical devices. The International Medical Device Regulators Forum (IMDRF) delineates SaMD as software executing medical functions without being embedded in a physical device. Examples encompass mobile medical applications, clinical decision support software, and AI/ML-based algorithms for medical image analysis, diagnosis, or treatment recommendations. 

Presently, AI/ML-based SaMD must adhere to the same regulatory prerequisites as traditional medical devices. This entails establishing a quality system (as per 21 CFR 820) and undergoing premarket review and clearance/approval by the FDA based on risk categorisation. The IMDRF has devised a risk categorisation framework stratifying SaMD into four categories (I-IV) contingent on the significance of the information provided and the healthcare situation's state.

Image Source: FDA Proposed Regulatory Framework

For SaMD necessitating premarket submission (e.g., 510(k), De Novo, or PMA), the FDA typically reviews and clears/approves a "locked" AI/ML algorithm. A locked algorithm yields consistent output for a given set of inputs and remains static over time. Substantial alterations to the locked algorithm generally mandate a new premarket submission and FDA review.

However, this framework isn't ideally suited for the dynamic nature of AI/ML algorithms, which continuously learn and adapt post-market. The iterative, autonomous, and adaptive attributes necessitate a novel regulatory approach facilitating swift product enhancement cycles while upholding safety and effectiveness standards.

Recognising the Potential and Crafting Future Regulations

The FDA acknowledges the transformative potential of AI/ML-based SaMD in healthcare, envisaging advancements in disease detection, diagnosis accuracy, and personalised therapeutics. However, the current regulatory paradigm presents a challenge in balancing the benefits of continual learning with the imperative of regulatory oversight to mitigate patient risks.

In response, the FDA has proposed a novel Total Product Lifecycle (TPLC) regulatory approach. This approach evaluates a company's culture of quality and organisational excellence, ensuring high-quality software development, testing, and performance monitoring. Key tenets of this approach include:

  1. Establishing clear expectations regarding quality systems and good machine learning practices (GMLP)

    Image Source: FDA Proposed Regulatory Framework


  2. Conducting premarket review with optional submission of predetermined modification plans by manufacturers.

  3. Mandating manufacturers to monitor and manage modification risks per predetermined plans.

  4. Enabling transparency and real-world performance reporting.

Central to this approach is the concept of a "predetermined change control plan" (PCCP), which manufacturers can submit during premarket review. The PCCP delineates anticipated modifications and protocols for implementation and validation, facilitating controlled iteration while ensuring safety and effectiveness.

Crafting a Predetermined Change Control Plan

The report proposes that a PCCP consists of three main components:

1) a detailed description of planned modifications 

2) a modification protocol outlining verification/validation activities for the modifications, and 

3) an impact assessment evaluating the benefits/risks of the modifications.

Image Source: FDA Proposed Regulatory Framework

Establishing a PCCP involves clearly defining the scope of anticipated modifications and documenting robust procedures in the Modification Protocol to ensure modifications remain safe and effective. The level of detail required may depend on the SaMD's risk category. 

When submitting for marketing authorization, manufacturers can identify if they plan to utilise a PCCP by including the Description of Modifications and Modification Protocol sections in their submission. FDA's review and authorization of an acceptable PCCP would allow the manufacturer to implement certain types of modifications described in the plan without further FDA review, as long as they follow the specified protocols and document their modification activities.

The Description of Modifications section should define the goals and boundaries for what types of modifications may occur, such as performance enhancements, new data inputs, or refined intended uses. Providing clear examples is recommended.

The Modification Protocol should specify how the manufacturer will implement modifications reliably. It should cover:

1) Data management practices for curating, maintaining, and controlling training/test datasets

2) Re-training practices on when/how the algorithm will be re-trained 

3) Performance evaluation protocols including metrics, analysis methods, predetermined performance targets

4) Update procedures for testing, deployment, versioning, and communication of algorithm updates

There must be traceability mapping the specific modification types described to the corresponding methods detailed in the Modification Protocol.

The PCCP framework aims to enable controlled iteration of AI/ML SaMD to realise performance improvements while enforcing pre-specified processes and guardrails to manage risks as the device evolves after initial marketing. Manufacturer adherence to approved PCCPs provides ongoing reasonable assurance of safety and effectiveness.

How can RagaAI help here?

Analysis of published resources shows RagaAI platform can help unlock tremendous values with regards to AI/ML compliance dimensions not only now but in future too.

Under the current overarching regulations RagaAI can help determine a locked SAMD and Good ML Practices, helping you achieve compliance with FDA.

The above image shows mapping of RagaAI offerings against GMLP practices. Source: RagaAI

RagaAI also provides a concrete framework for complying with the practices for AI/ML in Drug Development, which have been formulated with a risk-based approach.

Image Source: RagaAI

The website docs enlist and meticulously present the various tests which can be used to comply with different aspects of FDA regulations for both drug development and SaMD.

Conclusion

While this article only covers the AI Compliance landscape in healthcare from the lens of FDA, there are various regulatory regimes being crafted across the globe. FDA, being on the top of healthcare regulations, provides the best view into how the healthcare industry can approach enabling safe and ethical use of AI in applications.  As the healthcare industry is a very high-risk sector, the technology deployed at every step needs to be safe and repairable. Being highly comprehensive, this set of regulations can also be extrapolated, on a high level, to other acute-risk industries with ease. 

It is natural to have a lot of questions in your mind after reading this, and unfortunately we cannot cover all the ground in this article. 

But we wholeheartedly extend an invitation to share our expertise with whoever wants to take this wobbly ride of AI governance in Healthcare.

Get in touch with our Experts. 

Want to know more ? Get in touch with our experts!

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Transforming Conversational AI with Large Language Models

Rehan Asif

Aug 30, 2024

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Deploying Generative AI Agents with Local LLMs

Rehan Asif

Aug 30, 2024

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Exploring Different Types of AI Agents with Key Examples

Jigar Gupta

Aug 30, 2024

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Creating Your Own Personal LLM Agents: Introduction to Implementation

Rehan Asif

Aug 30, 2024

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Exploring Agentic AI Architecture and Design Patterns

Jigar Gupta

Aug 30, 2024

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Building Your First LLM Agent Framework Application

Rehan Asif

Aug 29, 2024

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Multi-Agent Design and Collaboration Patterns

Rehan Asif

Aug 29, 2024

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Creating Your Own LLM Agent Application from Scratch

Rehan Asif

Aug 29, 2024

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Solving LLM Token Limit Issues: Understanding and Approaches

Rehan Asif

Aug 29, 2024

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Understanding the Impact of Inference Cost on Generative AI Adoption

Jigar Gupta

Aug 28, 2024

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Data Security: Risks, Solutions, Types and Best Practices

Jigar Gupta

Aug 28, 2024

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Getting Contextual Understanding Right for RAG Applications

Jigar Gupta

Aug 28, 2024

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Understanding Data Fragmentation and Strategies to Overcome It

Jigar Gupta

Aug 28, 2024

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Understanding Techniques and Applications for Grounding LLMs in Data

Rehan Asif

Aug 28, 2024

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Advantages Of Using LLMs For Rapid Application Development

Rehan Asif

Aug 28, 2024

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Understanding React Agent in LangChain Engineering

Rehan Asif

Aug 28, 2024

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Using RagaAI Catalyst to Evaluate LLM Applications

Gaurav Agarwal

Aug 20, 2024

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Step-by-Step Guide on Training Large Language Models

Rehan Asif

Aug 19, 2024

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Understanding LLM Agent Architecture

Rehan Asif

Aug 19, 2024

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Understanding the Need and Possibilities of AI Guardrails Today

Jigar Gupta

Aug 19, 2024

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How to Prepare Quality Dataset for LLM Training

Rehan Asif

Aug 14, 2024

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Understanding Multi-Agent LLM Framework and Its Performance Scaling

Rehan Asif

Aug 15, 2024

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Understanding and Tackling Data Drift: Causes, Impact, and Automation Strategies

Jigar Gupta

Aug 14, 2024

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Introducing RagaAI Catalyst: Best in class automated LLM evaluation with 93% Human Alignment

Gaurav Agarwal

Jul 15, 2024

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Key Pillars and Techniques for LLM Observability and Monitoring

Rehan Asif

Jul 24, 2024

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Introduction to What is LLM Agents and How They Work?

Rehan Asif

Jul 24, 2024

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Analysis of the Large Language Model Landscape Evolution

Rehan Asif

Jul 24, 2024

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Marketing Success With Retrieval Augmented Generation (RAG) Platforms

Jigar Gupta

Jul 24, 2024

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Developing AI Agent Strategies Using GPT

Jigar Gupta

Jul 24, 2024

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Identifying Triggers for Retraining AI Models to Maintain Performance

Jigar Gupta

Jul 16, 2024

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Agentic Design Patterns In LLM-Based Applications

Rehan Asif

Jul 16, 2024

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Generative AI And Document Question Answering With LLMs

Jigar Gupta

Jul 15, 2024

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How to Fine-Tune ChatGPT for Your Use Case - Step by Step Guide

Jigar Gupta

Jul 15, 2024

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Security and LLM Firewall Controls

Rehan Asif

Jul 15, 2024

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Understanding the Use of Guardrail Metrics in Ensuring LLM Safety

Rehan Asif

Jul 13, 2024

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Exploring the Future of LLM and Generative AI Infrastructure

Rehan Asif

Jul 13, 2024

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Comprehensive Guide to RLHF and Fine Tuning LLMs from Scratch

Rehan Asif

Jul 13, 2024

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Using Synthetic Data To Enrich RAG Applications

Jigar Gupta

Jul 13, 2024

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Comparing Different Large Language Model (LLM) Frameworks

Rehan Asif

Jul 12, 2024

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Integrating AI Models with Continuous Integration Systems

Jigar Gupta

Jul 12, 2024

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Understanding Retrieval Augmented Generation for Large Language Models: A Survey

Jigar Gupta

Jul 12, 2024

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Leveraging AI For Enhanced Retail Customer Experiences

Jigar Gupta

Jul 1, 2024

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Enhancing Enterprise Search Using RAG and LLMs

Rehan Asif

Jul 1, 2024

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Importance of Accuracy and Reliability in Tabular Data Models

Jigar Gupta

Jul 1, 2024

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Information Retrieval And LLMs: RAG Explained

Rehan Asif

Jul 1, 2024

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Introduction to LLM Powered Autonomous Agents

Rehan Asif

Jul 1, 2024

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Guide on Unified Multi-Dimensional LLM Evaluation and Benchmark Metrics

Rehan Asif

Jul 1, 2024

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Innovations In AI For Healthcare

Jigar Gupta

Jun 24, 2024

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Implementing AI-Driven Inventory Management For The Retail Industry

Jigar Gupta

Jun 24, 2024

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Practical Retrieval Augmented Generation: Use Cases And Impact

Jigar Gupta

Jun 24, 2024

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LLM Pre-Training and Fine-Tuning Differences

Rehan Asif

Jun 23, 2024

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20 LLM Project Ideas For Beginners Using Large Language Models

Rehan Asif

Jun 23, 2024

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Understanding LLM Parameters: Tuning Top-P, Temperature And Tokens

Rehan Asif

Jun 23, 2024

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Understanding Large Action Models In AI

Rehan Asif

Jun 23, 2024

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Building And Implementing Custom LLM Guardrails

Rehan Asif

Jun 12, 2024

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Understanding LLM Alignment: A Simple Guide

Rehan Asif

Jun 12, 2024

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Practical Strategies For Self-Hosting Large Language Models

Rehan Asif

Jun 12, 2024

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Practical Guide For Deploying LLMs In Production

Rehan Asif

Jun 12, 2024

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The Impact Of Generative Models On Content Creation

Jigar Gupta

Jun 12, 2024

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Implementing Regression Tests In AI Development

Jigar Gupta

Jun 12, 2024

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In-Depth Case Studies in AI Model Testing: Exploring Real-World Applications and Insights

Jigar Gupta

Jun 11, 2024

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Techniques and Importance of Stress Testing AI Systems

Jigar Gupta

Jun 11, 2024

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Navigating Global AI Regulations and Standards

Rehan Asif

Jun 10, 2024

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The Cost of Errors In AI Application Development

Rehan Asif

Jun 10, 2024

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Best Practices In Data Governance For AI

Rehan Asif

Jun 10, 2024

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Success Stories And Case Studies Of AI Adoption Across Industries

Jigar Gupta

May 1, 2024

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Exploring The Frontiers Of Deep Learning Applications

Jigar Gupta

May 1, 2024

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Integration Of RAG Platforms With Existing Enterprise Systems

Jigar Gupta

Apr 30, 2024

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Multimodal LLMS Using Image And Text

Rehan Asif

Apr 30, 2024

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Understanding ML Model Monitoring In Production

Rehan Asif

Apr 30, 2024

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Strategic Approach To Testing AI-Powered Applications And Systems

Rehan Asif

Apr 30, 2024

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Navigating GDPR Compliance for AI Applications

Rehan Asif

Apr 26, 2024

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The Impact of AI Governance on Innovation and Development Speed

Rehan Asif

Apr 26, 2024

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Best Practices For Testing Computer Vision Models

Jigar Gupta

Apr 25, 2024

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Building Low-Code LLM Apps with Visual Programming

Rehan Asif

Apr 26, 2024

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Understanding AI regulations In Finance

Akshat Gupta

Apr 26, 2024

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Compliance Automation: Getting Started with Regulatory Management

Akshat Gupta

Apr 25, 2024

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Practical Guide to Fine-Tuning OpenAI GPT Models Using Python

Rehan Asif

Apr 24, 2024

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Comparing Different Large Language Models (LLM)

Rehan Asif

Apr 23, 2024

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Evaluating Large Language Models: Methods And Metrics

Rehan Asif

Apr 22, 2024

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Significant AI Errors, Mistakes, Failures, and Flaws Companies Encounter

Akshat Gupta

Apr 21, 2024

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Challenges and Strategies for Implementing Enterprise LLM

Rehan Asif

Apr 20, 2024

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Enhancing Computer Vision with Synthetic Data: Advantages and Generation Techniques

Jigar Gupta

Apr 20, 2024

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Building Trust In Artificial Intelligence Systems

Akshat Gupta

Apr 19, 2024

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A Brief Guide To LLM Parameters: Tuning and Optimization

Rehan Asif

Apr 18, 2024

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Unlocking The Potential Of Computer Vision Testing: Key Techniques And Tools

Jigar Gupta

Apr 17, 2024

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Understanding AI Regulatory Compliance And Its Importance

Akshat Gupta

Apr 16, 2024

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Understanding The Basics Of AI Governance

Akshat Gupta

Apr 15, 2024

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Understanding Prompt Engineering: A Guide

Rehan Asif

Apr 15, 2024

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Examples And Strategies To Mitigate AI Bias In Real-Life

Akshat Gupta

Apr 14, 2024

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Understanding The Basics Of LLM Fine-tuning With Custom Data

Rehan Asif

Apr 13, 2024

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Overview Of Key Concepts In AI Safety And Security
Jigar Gupta

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Apr 12, 2024

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Understanding Hallucinations In LLMs

Rehan Asif

Apr 7, 2024

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Demystifying FDA's Approach to AI/ML in Healthcare: Your Ultimate Guide

Gaurav Agarwal

Apr 4, 2024

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Navigating AI Governance in Aerospace Industry

Akshat Gupta

Apr 3, 2024

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The White House Executive Order on Safe and Trustworthy AI

Jigar Gupta

Mar 29, 2024

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The EU AI Act - All you need to know

Akshat Gupta

Mar 27, 2024

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Enhancing Edge AI with RagaAI Integration on NVIDIA Metropolis

Siddharth Jain

Mar 15, 2024

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RagaAI releases the most comprehensive open-source LLM Evaluation and Guardrails package

Gaurav Agarwal

Mar 7, 2024

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RagaAI LLM Hub
RagaAI LLM Hub
RagaAI LLM Hub
RagaAI LLM Hub
A Guide to Evaluating LLM Applications and enabling Guardrails using Raga-LLM-Hub

Rehan Asif

Mar 7, 2024

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Identifying edge cases within CelebA Dataset using RagaAI testing Platform

Rehan Asif

Feb 15, 2024

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How to Detect and Fix AI Issues with RagaAI

Jigar Gupta

Feb 16, 2024

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Detection of Labelling Issue in CIFAR-10 Dataset using RagaAI Platform

Rehan Asif

Feb 5, 2024

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RagaAI emerges from Stealth with the most Comprehensive Testing Platform for AI

Gaurav Agarwal

Jan 23, 2024

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AI’s Missing Piece: Comprehensive AI Testing
Author

Gaurav Agarwal

Jan 11, 2024

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Introducing RagaAI - The Future of AI Testing
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Jigar Gupta

Jan 14, 2024

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Introducing RagaAI DNA: The Multi-modal Foundation Model for AI Testing
Author

Rehan Asif

Jan 13, 2024

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Home

Product

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Copyright © RagaAI | 2024

691 S Milpitas Blvd, Suite 217, Milpitas, CA 95035, United States

Get Started With RagaAI®

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Schedule a call with AI Testing Experts

Home

Product

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Docs

Resources

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Copyright © RagaAI | 2024

691 S Milpitas Blvd, Suite 217, Milpitas, CA 95035, United States