Practical application of artificial intelligence in medicine

Machine Learning


Practical application of artificial intelligence in medicine
Practical application of artificial intelligence in medicine

Artificial intelligence refers to the general ability of computers to emulate human thinking and perform tasks in real-world environments.

This is an exclusive article series conducted by Supantha Banerjee, Chief Information Officer (CIO) and Chief Digital Officer (CDO), and the editorial team of CIO News.

Before we look at the application of machine learning in the healthcare industry, let’s first explain what artificial intelligence (AI) is, what machine learning (ML) is, and how machine learning (ML) relates to artificial intelligence (see AI). Artificial intelligence (AI) and machine learning are often used interchangeably, but machine learning is a subset of the broader category of AI.

Artificial intelligence refers to the general ability of computers to emulate human thinking and perform tasks in real-world environments. Machine learning, on the other hand, refers to the technologies and algorithms that enable computer systems to identify patterns, make decisions, and improve themselves through experience and data. thereby making them intelligent.

Product engineers and software developers can artificially analyze data and solve problems by applying advanced techniques that differ from static if-else-when types of data processing rules and logic, such as: Build intelligent (AI) systems and products.

  • Machine learning (ML)
  • Deep learning (DL)
  • neural network
  • computer vision
  • Natural Language Processing (NLP)

What is artificial intelligence (AI)?

Artificial intelligence is the field of developing computer systems and robots that can behave in ways that mimic or exceed human capabilities. AI-enabled programs can analyze and contextualize data to inform and automatically trigger actions without human intervention.

Artificial intelligence is at the heart of many of the technologies we use today, including smart devices and voice assistants. Businesses are looking at technologies such as natural language processing (the ability of computers to understand text and voice data and respond with their own text and voice, much like humans do) and computer vision (the ability of computers to use human language). We are incorporating technology. such as language and image interpretation) to automate tasks, accelerate decision-making, and enable customer conversations using chatbots.

What is Machine Learning?

Machine learning is the application of AI and the path to artificial intelligence. It is the process of using mathematical models of data or algorithms to automatically learn insights and recognize patterns from data so that computers can learn without direct instruction. This allows computer systems to continually learn and improve on their own, making better decisions over time based on experience.

One way to train computers to mimic human reasoning is to use neural networks, a set of algorithms modeled after the human brain. Neural networks help computer systems achieve AI through deep learning. This close relationship is why the idea of ​​AI vs. machine learning is really about how AI and machine learning work together.

How is it going artificial intelligence and machine learning are connected?

Intelligent computers use AI to think like humans and perform tasks independently. Machine learning is how computer systems develop their intelligence.

Let’s focus here on practical applications of AI (artificial intelligence).

Advances in machine learning (ML), deep learning (DL), and natural language processing (NLP) in healthcare are transforming the way healthcare is delivered, driving efficiencies at every level, from billing to imaging to diagnosis. It was helpful. Providing better, more decentralized care. Disease and disease prevention. Reduce the burden on medical professionals. And most importantly, it reduces patient costs.

Podiatry

Machine learning has been investigated in wound imaging to predict healing and infection. ML algorithms such as random forests and support vector machines have been implemented to predict healing using texture and color, clinical and biomarker data, and deep learning. Better prediction of infection and time to healing has the potential to improve wound care outcomes through individualized patient education and early use of advanced therapies.

oncology

Doctors usually require blood tests, biopsy, or x-ray imaging to determine whether the tumor is benign or malignant. These test results can usually take hours, if not days, to confirm the diagnosis. This is a great opportunity to leverage machine learning tools to simplify this decision. By training a logistic regression ML model on millions of pre-existing health records with pre-determined cancer diagnoses detailing a subset of characteristics, physicians can determine whether a tumor is in fact benign. You can quickly determine if it is malignant. This not only enables rapid diagnosis and the delivery of prompt care, but also the opportunity to provide remote services to patients who do not have access to nearby hospital facilities and doctors. Algorithms have been developed that can scan images of cells to find early signs of cancer. These algorithms can often detect cancer before it is visible to the naked eye. This means earlier diagnosis and treatment.

Real-world data are increasingly being used to inform research, patient care, and population health in oncology. However, using real-world data at scale requires accurate methods for identifying clinically relevant attributes. Combining this rich data with increasingly sophisticated applications of ML produces better models that continually improve their predictive power.

geriatrics

Advances in conversational AI (NLP) can help alleviate some of the “loneliness” in geriatric care. Having a meaningful two-way conversation (perhaps with a loved one’s voice) may help minimize the patient’s anxiety.

newborn

Artificial intelligence can be used for risk scoring of maternal and neonatal outcomes. By identifying high-risk pregnancies early, care managers can use the results of her ML model to improve both maternal and neonatal outcomes such as NICU admission, NICU LOS, preterm birth, and readmission.

patient involvement

Patient-member engagement is one of the most challenging healthcare opportunities. With ML, you can understand SDOH (Social Determinants of Health) factors to improve engagement. This in turn helps streamline care costs related to factors beyond the physician’s control, such as comorbidities or masking situations where members do not adhere to care plans or refill prescriptions. ML can help identify such members at an early stage and help payers and providers devise strategies to keep members engaged, thereby thwarting the healthcare cost growth curve. helps.

Providing and managing care

Machine learning can greatly assist healthcare providers in detecting and identifying disease. Various ML algorithms can be used to support or enhance disease diagnosis and detection. Large datasets from EHRs and medical claims records offer rich opportunities for disease detection not only at the patient level, but also at the population level. Running claims datasets, especially procedural codes such as CPT and CDT, with appropriate ML algorithms can help identify rare diseases based on the presence of comorbidities. ML models can also use phenotypic information to predict the most effective drugs for a given disease.

Machine learning algorithms analyze and identify patterns in medical histories, test results, and demographics to identify which patients are at risk of readmission and flag them for follow-up care after discharge. can be attached. In retail pharmacy settings, ML models run on data from HER and EMR can help identify which patients are at risk of non-compliance and initiate proactive follow-up calls. increase. Artificial intelligence has great potential for automating most of the retail pharmacy business processes, such as tablet filling, product validation, and data entry.

Natural language processing (speech-to-text) has helped simplify care delivery in areas such as automated note-taking and writing, explanation of hospital discharge instructions, interpretation of test results, and real-time translation between multiple languages.

Conclusion

Artificial intelligence is transforming healthcare operations and delivery, from back-office management and resource scheduling to clinic applications, image reconstruction for medical scanners, computer-aided diagnosis, treatment planning, biomarkers, drug discovery, and predictive apps for access. Applied in many fields. There are still several opportunities to address, such as reproducibility and performance of DL/ML systems or devices, clinical workflow integration, training and reskilling of clinical and support staff, and biases. Trust issues, accessibility and patient privacy, doctor-patient relationships, consistent quality over time, and more.

Artificial intelligence, machine learning, and predictive models tend to work most of the time, but cannot easily account for variability and be fast or performant at the same time. Predictive models are auxiliary assistants such as her GPS while driving. You can suggest potential routes or raise potential issues, but it should not replace thinking on the part of the provider or care team. Predicting the chance of precipitation is another. Whether you need an umbrella is another decision. Getting the medical team on board early on the potential application of AI to enhance decision-making is the best way to get buy-in.

Patients, providers, and consumers want experiences that are unique to their brand, consistent, and repeatable. Every good experience rests on some solid foundational pillars. For AI, the fundamental pillars are comprehensive, consistent, scalable, and reliable datasets and the flow of data from heterogeneous business or clinical applications into data warehouses, data lakes, or data hubs. A robust data pipeline that enables

Healthcare is not a practice. It is a human effort. And like any endeavor, results are never guaranteed. Our goal is to always make it easy and simple for patients, providers and those who care for them.

How have you recently improved the healthcare provider or patient experience using artificial intelligence?

About Spantha Banerjee:

Supantha breaks down an organization’s digital ambitions into tangible, actionable workstreams and implements them to improve patient and consumer experiences and increase revenue, thereby empowering suppliers and consumers. A global leader with a proven track record of enhancing stakeholder value across the value chain. He is an expert in patient and consumer experience, e-commerce, omnichannel, cybersecurity and M&A. In his most recent role as CIO/CDO at EyeCare Partners and Aspen Dental, Supantha led his digital and technology teams to drive business growth through digital transformation and technology innovation. Under his leadership, companies set up digital experiences and e-commerce platforms, built data lakes for his 360-degree view of patients and companies, digitized patient admissions and check-ins, simplified online scheduling, Improved patient experience with enhancements to the patient portal. Continually develop the business through new and acquisition growth while building our own PM and EMR systems.

Please read also: Sanjay Verma: Transforming Business with Digital Innovation at Ester Industries

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