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Conversational AI is sidestepping traditional user interfaces and offering customers a more natural and streamlined way to interact and…
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This article explains a very brief overview of the perceptron algorithm
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In 2020, the impact of Artificial Intelligence on healthcare became more evident than ever. With coronavirus threats and medical understaffing all over the world, it’s obvious that we need help. Artificial Intelligence is the most prominent solution right now, and its role will likely grow even after the pandemic.
Actual medical cases have already shown the payoff from Artificial Intelligence investment. For many years, China has been on the front-line on building AI-based healthcare software — and during the COVID-19 epidemic, it paid off in full. AI software helped with diagnosis, treatment, organization, and there are a lot many aspects to come.
Reports are highly optimistic about the future of healthcare and Artificial Intelligence. According to Accenture, AI can help save more than 150 billion dollars of US healthcare expenses. It’s likely that now healthcare and technology will become even more prominent fields of investment, and we can expect higher growth.
Where can we see the change already, and what fields are starting to get revolutionized? We summarized 7 main aspects of healthcare, changed by AI.
Healthcare institutions need to select their workload in order to be more efficient. When there is a crisis situation, doctors shouldn’t be forced to choose who lives and dies from the patient’s clinical history and vital signs. An AI system can help predict the progress of a case and distribute work in a way that allows all patients to get sufficient care.
AI can turn hospitals into connected systems. Each patient case will be stored in a smart database, while the software will distinguish the bigger picture and update the work plan. Moreover, AI can predict bottlenecks, distribute resources, allocate same-day surgeries, and prevent a shortage of medical staff. This is especially important in crisis situations, such as the one that hit hospitals all over the world due to the COVID-19 pandemic.
AI can make diagnoses and clinical exams faster by analyzing medical data and drawing informed conclusions. Such software will spare doctors the necessity to go through pages of data and overburden patients with an unnecessary test. On top of that, AI can control documentation storage, making sure that neither scanned medical records nor prescriptions are lost.
The Duke Institute for Health Innovation developed Sepsis Watch, smart patient diagnosis and monitoring system that analyzes personal data to evaluate patients’ state. The system establishes a personalized threshold that defines normal and critical states. As soon as the data hits the limit, a doctor receives an immediate call-to-action. This way, the hospital response team can get alerts in time and quickly address the patient’s potential complications.
According to the research of the University Hospitals Birmingham NHS Foundation Trust, Artificial Intelligence is at least as good in determining medical diagnosis as humans are. During the study, the research team examined the sensitivity (the probability of recognizing a disease) and specificity of diagnosis (the evaluation if the diagnosis was correct).
The team collected more than 20,500 research articles about AI diagnosis, selected the best-researched ones, and compared the performance of AI and certified medical professionals. The research showed that AI in all the analyzed studies performed as well as doctors — although not much better.
So, while traditional diagnosing methods are not yet replaced by AI, it’s likely that with the help of machine learning, smart algorithms can potentially outperform human specialists.
Artificial Intelligence can create treatment plans for patients who are on the early and late stages of their illnesses, either helping to stop the spread of the disease, or dealing with a serious health crisis. This is already done by IBM Watson — the system creates treatment plans for cancer patients. Watson analyzes medical records, patients’ clinical histories, clinical trials, and journals all over the world.
Medical professionals and patients, there, get access to innovative treatment options all over the world — as the innovations are being published and discovered. This could help deliver higher-standard care and promote innovation adoption.
Artificial Intelligence, with its superior data processing and analytical capacities, holds huge potential for increasing the accessibility of healthcare. People who don’t have access to healthcare institutions or don’t have proper medical insurance can get informed consultations with AI, and if needed, be connected to medical professionals through a telemedicine application that brings mutual benefits. Moreover, AI-powered healthcare assistants offer personalized experiences and help drive better patient outcomes. Additionally, they can do the following:
Obviously, AI healthcare assistants can’t be proper substitutes for actual medical care, but they can become a bridge between a patient and a healthcare institution.
AI is used in operating rooms (ORs) for a while. For instance, energy delivery robots like Programmable Automata used to calculate the position of equipment during cancer treatment. Dental robots use digital mapping to get doctors a more profound insight into a patient’s anatomy. Robots can pre-plan the procedure, calculate angles and orientations, and analyze risks of the surgery. Another example is Motorized Laparoscopic — a tool that allows getting better visibility of laparoscopic cameras by picking the most vital angles.
Such tools will likely become more widespread in the future, helping doctors to improve the efficiency of their working process, shortening surgery time, and leading to better recovery.
AI-based learning systems can help medical students define the most important information for their course, track knowledge, and performance, and plan curriculum. When it comes to getting practical skills, combining AI and virtual reality can be used to create a smart interactive training center, where medical interns and residents can go through surgical procedures, receive advice, and get alerts if there was a mistake.
The adoption of AI is currently yet held back by several ethical and practical aspects. Let’s take a closer look at them below:
Artificial Intelligence in healthcare can solve many problems that the industry is struggling with: understaffing, the lack of time for research and informed decision making, limited prediction capacities, and poor patient experiences. Additionally, AI has the potential to make healthcare more accessible to everyone — and not just in the US but all over the world.
Obviously, there are many ethical and practical challenges to overcome, but it’s likely that the adoption of AI in healthcare is now only a matter of time. Embracing innovation will ultimately lead to a better doctor and patient experiences, and this result is well worth investing time and resources.



The Future of Healthcare with AI was originally published in Becoming Human: Artificial Intelligence Magazine on Medium, where people are continuing the conversation by highlighting and responding to this story.
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In our last tutorial, we looked into request headers and cookies and their role when you scrape data.
So, what’s the next problem you could encounter when scraping?
Yes, it’s login screens.
Sometimes, you might set your sights on scraping data you can access only after you log into an account. It could be your channel analytics, your user history, or any other type of information you need.
In this case, first check if the company provides an API for the purpose. If it does, that should always be your first choice. If it doesn’t, however, don’t despair. There is still hope. After all, the browser has access to the same tools when it comes to a request as we do.
Information that requires a login to access is generally not public. This means that distributing it or using it for commercial purposes without permission may be a legal violation. So, always make sure to check the legality of your actions first.
Depending on the popularity and security measures of the website you are trying to access, signing in can be anywhere between ‘relatively easy’ and ‘very hard’.
First, when you press the ‘sign in’ button, you are redirected to a log-in page. This page contains a simple HTML form to prompt for ‘username’ (or ‘email’) and ‘password’.
When filled out, a POST request, containing the form data, is sent to some URL. The server then processes the data and checks its validity. In case the credentials are correct, most of the time a couple of redirects are chained to finally lead us to some account homepage of sorts.
There are a couple of hidden details here, though.
This data often includes some “authenticity token” which signals that this login attempt is legitimate and it may or may not be required for successful login.
If we successfully signed into our account, client-side cookies are set. Those should be included in each subsequent request we submit. That way, the server knows that we are still logged in and can send us the correct page containing sensitive info.
The first piece of the puzzle is to find out where the ‘post’ request is sent to and the format of the data. There are a couple of ways to do that. You can either infer that information from the HTML or intercept the requests our browser submits.
The majority of login forms are written using the HTML tag ‘form’:

The URL of the request can be found in an attribute called ‘action’, whereas the parameter fields are contained in the ‘input’ tags. This is important because the hidden parameters will also be placed in input tags and thus can be obtained.
As trivial as it may seem, we don’t have that knowledge a priori.
For example, think about the username. What should that parameter be called? Well, it might be simply ‘userName’, or it could be called ‘email’, maybe ‘user[email]’. There are many different options, so we should check the one employed by the developers through the ‘name’ attribute.
We do that with the help of the Developer tools. Specifically, in the Chrome developers’ tools, there is a ‘Network’ tab that records all requests and responses.

Thus, all we need to do is fill our details and log in while the Network tab is open. The original request should be there somewhere with all request and response headers visible, as well as the form data.

However, bear in mind that it could be buried in a list of many other requests, because of all the redirects and the subsequent fetching of all resources on the page.
The data can be sent as a regular dictionary. Don’t worry about the subsequent redirects – the requests library deals with that automatically, by default. Of course, this behavior can be changed.
Well, we need to set our cookies in advance first. That means we have to take advantage of requests’ sessions.
Summarizing all this, a sample code for a simple login may look like this:

Here we define all the form details, then we create the session and submit the POST request for authentication. Note that the request is made through the session variable, in this case, ‘s’.
Some websites employ more complex login mechanisms, but this should suffice for most.
I hope this tutorial will help you with your tasks and web scraping projects.
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