Artificial Intelligence (AI) on Healthcare

Author: Alexandre Palma
Image Source: https://www.forbes.com/sites/cindygordon/2022/10/31/ai-in-healthcare-is-making-our-world-healthier/?sh=1730c67313ea

AI for Drug Discovery

AI technology in healthcare has helped pharmaceutical companies speed up their drug discovery process. It, on the other hand, automates the identification of targets. AI drug discovery streamlines the process and reduces repeated work.

For example, Pfizer is utilizing IBM Watson, a machine learning-based system, to help it find immuno-oncology treatments and Sanofi has agreed to employ Exscientia’s artificial intelligence (AI) platform to seek metabolic-disease medications.

If proponents of these strategies are correct, AI and machine learning will bring in a new era of drug development that is faster, cheaper, and more effective. Some are skeptical, but most experts believe these tools will become more crucial in the future.

AI for clinical trials

A clinical trial is a procedure in which freshly manufactured treatments are given to people to test how well they work. This has taken a significant amount of time and money. The success rate, however, is quite low. As a result, clinical trial automation has proven to be a benefit for AI and the healthcare business. Furthermore, Artificial Intelligence and healthcare assistance in the elimination of time-consuming data monitoring procedures.

Additionally, AI-assisted clinical trials handle large amounts of data and produce very accurate outcomes. There are some of the most popular Artificial Intelligence in healthcare applications for clinical trials:

  • Intelligent clinical trials – Traditional linear and sequential clinical trials are still the gold standard for ensuring the efficacy and safety of new drugs. The lengthy, tried-and-true method of distinct and defined stages of randomized controlled trials (RCTs) was developed primarily for evaluating mass-market pharmaceuticals and has remained mostly unchanged in recent decades. Artificial intelligence has the potential to shorten clinical trial cycle durations while also enhancing productivity and clinical development outcomes. Applying predictive AI models and advanced analytics to unlock real-world data (RWD) can help researchers better understand diseases, find relevant patients and important investigators, and enable revolutionary clinical study designs. In combination with an efficient digital infrastructure, clinical trial data might be cleansed, aggregated, coded, preserved, and maintained using AI algorithms.
  • Clinical Trial Cooperation and model sharing – Global, open, comprehensive, comparable, and verifiable data-sharing activities will be useful at this stage in connecting and promoting cooperation between various communities and geographies. Open science, aided by multi-stakeholder AI collaborations that operate across international borders, can speed up information distribution and capacity building in national health systems. The Epidemic Intelligence from Open Sources (EIOS) network, for example, uses open-source data to enable early detection, verification, and assessment of public health hazards and threats. Models used to diagnose illness from pictures, forecast patient results, filter misinformation, and misinformation depending on propagating patterns through social media, and distill knowledge graphs from massive collections of scholarly papers are instances of algorithms that could be broadly useful.

 AI for Patient Care

Patient outcomes are influenced by artificial intelligence in healthcare. Medical AI firms create a system that aids the patient at every level. Clinical intelligence also analyzes patients’ medical data and delivers insights to help them enhance their quality of life. The following are a few significant clinical intelligence systems that improve patient care:

  • Maternal Care – That´s a potential technique for identifying high-risk moms and reducing maternal mortality and problems after childbirth: A) Predicting whether expectant mothers are at significant risk of difficulties during delivery using electronic health data and artificial intelligence (AI). B) Using digital technology to increase patient entry to both regular and high-acuity care (i.e., more sophisticated, and frequent care) throughout their pregnancy. When compared to delivering in higher-acuity clinics with more strong resources and clinical experience, high-risk obstetric women who deliver their infants at low-acuity clinics have a higher risk of developing serious maternal morbidity.
  • Healthcare Robotics – In addition to medical personnel, certain medical robots assist patients. Exoskeleton robots, for example, can assist paralyzed patients in walking again and becoming self-sufficient. A smart prosthesis is another example of technology in action. These bionic limbs attach sensors that render them more responsive and accurate than natural body parts, with the option of covering them in bionic skin and connecting them to the user’s muscles. Robots can help with rehabilitation and surgery. Cyberdyne’s Hybrid Assistive Limb (HAL) exoskeleton, for example, is designed to help patients rehabilitate from conditions that lead to lower limb disorders, such as spinal cord injuries and strokes, by using sensors placed on the skin to efficiently detect electrical signals in the patient’s body and responding with movement at the joint.

Artificial intelligence (AI) is progressively being used in healthcare, as it becomes more prevalent in modern enterprises and everyday life. Artificial intelligence has the potential to help healthcare providers in a variety of ways, including patient treatment and administrative tasks. The majority of AI and healthcare innovations are useful in the healthcare industry, but the strategies they assist can be rather different.