Responsible AI Flashcards
HIC
High-Income Countries
LMIC
Low- and Middle- Income Countries
Artificial Intelligence (AI)
The ability of algorithms encoded in technology to learn from data so that they can perform automated tasks without every step in the process having to be programmed explicitly by a human.
6 key ethical principles for the use of AI for health
- -Protecting human autonomy
- -Promoting human well-being and safety and the public interest
- -Ensuring transparency, explainability, and intelligibility
- -Fostering responsibility and accountability
- -Ensuring inclusiveness and equity
- -Promoting AI that is responsive and sustainable
Protecting human autonomy
One of the 6 key ethical principles for the use of AI for health that stipulates that:
the use of AI or other computational systems does not undermine human autonomy - i.e., that humans remain in control of health care systems and medical decisions.
providers have the information necessary to make safe, effective use of AI systems and that people understand the role that
such systems play in their care.
there is protection of privacy and confidentiality and obtaining valid informed consent through appropriate legal frameworks for data protection.
Promoting human well-being and safety and the public interest
One of the 6 key ethical principles for the use of AI for health that stipulates that:
AI should not harm people nor result in mental or physical harm that could be avoided by use of an alternative practice or approach.
Ensuring transparency, explainability and intelligibility
One of the 6 key ethical principles for the use of AI for health that stipulates that:
AI technologies should be intelligible or understandable to developers, medical professionals, patients, users and regulators.
Transparency requires that sufficient information be published or documented before the design or deployment of an AI technology and that such information facilitate meaningful public consultation and debate on how the technology is designed and how it should or should not be used.
AI technologies should be explainable according to the capacity of those to whom they are explained.
Fostering responsibility and accountability
One of the 6 key ethical principles for the use of AI for health that stipulates that:
AI stakeholders are responsible for ensuring that AI can perform its tasks and that AI is used under appropriate conditions and by appropriately trained people.
Responsibility can be assured by application of “human warranty”, which implies evaluation by patients and clinicians in the development and deployment of AI technologies. Human warranty requires application of regulatory principles upstream and downstream of the algorithm by establishing points of human supervision.
If something goes wrong with an AI technology, there should be accountability. Appropriate mechanisms should be available for questioning and for redress for individuals and groups that are adversely affected by decisions based on algorithms.
Ensuring inclusiveness and equity
One of the 6 key ethical principles for the use of AI for health that stipulates that:
AI for health be designed to encourage the widest possible appropriate, equitable use and access, irrespective of age, sex, gender, income, race, ethnicity, sexual orientation, ability or other characteristics protected under human rights codes. AI technologies should:
be available for the needs in HIC and LMIC.
avoid biases to the disadvantage of identifiable groups, especially groups that are already marginalized.
minimize inevitable disparities in power that arise between providers and patients, between policy-makers and people and between companies and governments that create and deploy AI technologies and those that use or rely on them.
be monitored and evaluated to identify disproportionate effects on specific groups of people.
Promoting AI that is responsive and sustainable
One of the 6 key ethical principles for the use of AI for health that stipulates that:
designers, developers and users continuously, systematically and transparently assess AI applications during actual use.
determine whether AI responds adequately and appropriately and according to communicated, legitimate expectations and requirements
AI systems should be designed to minimize their environmental consequences and increase energy efficiency.
Who are the primary stakeholders for responsible AI?
The development, adoption and use of AI requires an integrated, coordinated approach among these stakeholders
Gov’t health agencies - determine how to introduce, integrate and harness these technologies for the
public good while restricting or prohibiting inappropriate use
Gov’t Regulatory agencies - validate and define whether, when and how such technologies are to be used
Gov’t Educational agencies - teach current and future health-care workforces how such technologies function and are to be integrated into everyday practice
Gov’t Information Technology - facilitate the appropriate collection and use of health data and narrow the digital divide
Government Legal systems - ensure that people harmed by AI technologies can seek redress
Non Gov’t medical researchers, scientists, health-care workers and, especially, patients.
Technologists and software developers
Companies, universities, medical associations and international organizations
What are some examples where AI can improve the delivery of health care?
Prevention
Diagnosis and treatment of Disease
Augment the ability of health-care providers to improve patient care
Optimize treatment plans
Support pandemic preparedness and response
Inform the decisions of health policy-makers or allocate resources within health systems
Empower patients and communities to assume control of their own health care and better understand their evolving needs
Enable resource-poor countries, where patients often have restricted access to health-care workers or medical professionals, to bridge gaps in access to health services.
supervised learning
A subcategory of Machine Learning (ML) where data used to train the model are labelled (the outcome variable is known), and the model infers a function from the data that can be used for predicting outputs from different inputs.
Unsupervised learning
A subcategory of Machine Learning (ML) that does not involve labelling data (like with supervised learning) but involves identification of hidden patterns in the data by a machine
Reinforcement learning
A subset of Machine Learning (ML) that involves machine learning by trial and error to achieve an objective for which the machine is “rewarded” or “penalized”, depending on whether its inferences reach or hinder achievement of an objective
Deep learning or Deep structured learning
A subcategory of Machine Learning (ML) that is based on the use of multi-layered models to progressively extract features from data. Deep learning can be supervised, unsupervised or semi-supervised. Deep learning generally requires large amounts of data to be fed into the model.
What are the dimensions of big data?
volume - data that is voluminous, big, petabytes
velocity - the speed at which the data is created and according to which data needs to be stored and analyzed
variety - a form of scalability that refers to diversity of the data. Data comes in different forms -structured, unstructured, etc.
veracity - refers to the quality of data
variability - data’s meaning is constantly changing. For example, language processing by computers is exceedingly difficult because words often have several meanings. Data scientists must account for this variability by creating sophisticated programs that understand context and meaning.
valence - refers to connectedness. the more connected the more valence. valence measures the ratio of actually connected data items to the possible number of connections that could occur within the collection.
value - main purpose between collecting, storing, analyzing and all the other things we do is to extract “Value” from Big Data.
How might AI be used in Diagnosis and prediction-based diagnosis?
Currently, AI is being evaluated for use in radiological diagnosis in oncology (thoracic imaging, abdominal and pelvic imaging, colonoscopy, mammography, brain imaging and dose optimization for radiological treatment), in non-radiological applications
(dermatology, pathology), in diagnosis of diabetic retinopathy, in ophthalmology and for RNA and DNA sequencing to guide immunotherapy.
In LMIC, AI may be used to improve detection of tuberculosis in a support system for interpreting staining images (12) or for scanning X-rays for signs of tuberculosis, COVID-19 or 27 other conditions.
AI might be used to predict illness or major health events before they occur. For example, an AI technology could be adapted to assess the relative risk of disease, which could be used for prevention of lifestyle diseases such as cardiovascular disease and diabetes.
AI prediction could identify individuals with tuberculosis in LMIC who are not reached by the health system and therefore do not know their status.
Predictive analytics could avert other causes of unnecessary morbidity and mortality in LMIC, such as birth asphyxia. An expert system used in LMIC is 77% sensitive and 95% specific for predicting the need for resuscitation
How might AI be used in Clinical Care?
Clinicians might use AI to integrate patient records during consultations, identify patients at risk and vulnerable groups, as an aid in difficult treatment decisions and to catch clinical errors.
In LMIC, for example, AI could be used in the management of antiretroviral therapy by predicting resistance to HIV drugs and disease progression, to help physicians optimize therapy
AI could eventually change how patients self-manage their own medical conditions, especially chronic diseases such as cardiovascular diseases, diabetes and mental problems via through conversation agents (e.g. “chat bots”), health monitoring and risk prediction tools and technologies designed specifically for individuals with disabilities
Telemedicine is part of a larger shift from hospital- to home-based care, with use of AI technologies to facilitate the shift. They include remote monitoring systems, such as video-observed therapy for tuberculosis and virtual assistants to support patient care.
Wearables will create more opportunities to monitor a person’s health and to capture more data to predict health risks, often with greater efficiency and in a timelier manner. This could generate data to predict or detect health risks or improve a person’s treatment when necessary
AI is being considered for use to assist in decision-making about prioritization or allocation of scarce resources. AI version,
“DeepSOFA” (Sequential Organ Failure Assessment), has been developed.
It has been suggested that machine-learning algorithms could be trained and used to assist in decisions to ration supplies, identify which individuals should receive critical care or when to discontinue certain interventions, especially ventilator support
What are some applications of AI for health research?
An important area of health research with AI is based on use of data generated for electronic health records for biomedical research, quality improvement and optimization of clinical care
AI can help to identify clinical best practices before the customary pathway of scientific publication, guideline development and clinical support tools.
AI can also assist in analyzing clinical practice patterns derived from electronic health records to develop new clinical practice models
AI is expected to play an important role in genomics. In health research, for example, AI could improve human understanding of disease or identify new disease biomarkers
What are some applications of AI in drug development?
AI could change drug discovery from a labor-intensive to a capital- and data-intensive process with the use of robotics and models of genetic targets, drugs, organs, diseases and their progression, pharmacokinetics, safety and efficacy.
AI could be used in drug discovery and throughout drug development to shorten the process and make it less expensive and more effective. AI was used to identify potential treatments for Ebola virus disease, although, as in all drug development, identification of a lead compound may not result in a safe, effective therapy
What are some applications of AI in health systems management and planning?
AI can be used to assist personnel in complex logistical tasks, such as optimization of the medical supply chain, to assume mundane, repetitive tasks or to support complex decision-making.
Some possible functions of AI for health systems management include: identifying and eliminating fraud or waste, scheduling patients, predicting which patients are unlikely to attend a scheduled appointment and assisting in identification of staffing requirements
For example, researchers in South Africa applied machine-learning models to administrative data to predict the length of stay of health workers in underserved communities
What are some applications of AI in public health and public health surveillance?
improve identification of disease outbreaks and support surveillance
AI can be used for health promotion or to identify target populations or locations with “high-risk” behavior and populations that would benefit from health communication and messaging (micro-targeting)
AI has also been used to address the underlying causes of poor health outcomes, such as risks related to environmental or occupational health.
surveillance itself is changing, especially real-time surveillance. For example, researchers could detect a surge in cases of severe pulmonary disease associated with the use of electronic cigarettes by mining disparate online sources of information and using Health Map, an online data-mining tool
The possible uses of AI for different aspects of outbreak response have also expanded during the COVID-19 pandemic.
What is an Ethical Principle for the application of AI for health?
An ethical principle is a statement of a duty or a responsibility in the context of the development, deployment and continuing assessment of AI technologies for health. Ethical principles are grounded in basic ethical requirements that apply to all persons and that are considered noncontroversial.