Cognitive Computing - Our future!!
How Cognitive Computing Works?
Cognitive computing systems can synthesize data from various
information sources, while weighing context and conflicting evidence to suggest
the best possible answers. To achieve this, cognitive systems include
self-learning technologies that use data mining, pattern recognition and
natural language processing (NLP) to mimic the way the human brain works. Using
computer systems to solve the types of problems that humans are typically
tasked with requires vast amounts of structured and unstructured data, fed to
machine learning algorithms. Over time, cognitive systems are able to refine
the way they identify patterns and the way they process data to become capable
of anticipating new problems and model possible solutions. To achieve those
capabilities, cognitive computing systems must have five key attributes, as
listed by the Cognitive Computing Consortium.
Adaptive: The system must reflect the ability to adapt like
a brain does to any surrounding. It needs to be dynamic in data gathering and
understanding goals and requirements.
Interactive: The system must be able to interact
easily with users so that users can define their needs comfortably. Similarly,
it must also interact with other processors, devices, and Cloud services.
Iterative & Stateful: This feature needs a careful application of the data quality and validation methodologies to ensure that the system is always provided with enough information and that the data sources it operates on deliver reliable and up-to-date input.
Contextual: Ability to understand, identify, and extract contextual elements such as meaning, syntax, time, location, appropriate domain, regulations, user’s profile, process, task and goal. It must draw on multiple sources of information, including both structured and unstructured digital information.
How cognitive computing differs from Artificial Intelligence
Artificial intelligence agents decide which actions are the
most appropriate to take, and when they should be taken. These agents most
often take the form of machine learning algorithms, neural networks,
statistical analysis and more. You feed the AI information — oftentimes, over a
long period of time so that it can “learn” the variables it should pay
attention to and the desired outcomes — and it spits out a solution. The
potential applications for AI are widespread and already fully integrated into
our daily lives, from your Siri/Alexa/Google voice assistant, to Netflix making
recommendations based on your viewing experience. If we consider the future a
bit more, AI and fully autonomous vehicles are inseparable. In training, the AI
watches countless hours of driving footage, is given some variables to watch
out for — lanes, other cars, pedestrians — and then delivers a result based on
its decision-making.
Cognitive computing is often described as simply marketing
jargon, so crafting a working definition is important, although it’s more fluid
right now, and there isn’t one consensus that industry experts have settled on.
Still, the foundation is that cognitive computing systems try to simulate human
thought processes. This process uses many of the same fundamentals as AI, such
as machine learning, neural networks, natural language processing, contextual
awareness and sentiment analysis, to follow the problem-solving processes that
humans do day in and day out. IBM defines the result of cognitive computing as
“systems that learn at scale, reason with purpose and interact with humans
naturally.” Sentiment analysis is one
emerging cognitive computing task, as in order to fully understand the context
and nuances of human language, it must process words on their deepest
linguistic meanings. But, if we’re talking about IBM and Watson, it makes sense
to talk medicine — a doctor inputs data about their patients, and cognitive
computing algorithms analyze it using mimicked human problem-solving. The
application then delivers some suggestions and information to help the doctor
decide what to do next.
Cognitive Computing: Use Case
Healthcare- Analyzing the patient history and current state by studying various parameters and deriving conclusions such as diagnosis, best treatment, etc. is one of the most widely stated examples of cognitive computing. It can also help with preparing a personalized diet or nutrition plans as per a person’s medical history.
Education and Research- Instead of a single teacher handling a large bunch of students ineffectively, cognitive computing can be a personalized teacher/mentor per student. It can remember every small and large detail about the student and his/her performance leading to a better selection of focus areas along with an array of other benefits. It can aid in research by working on data in a far more swift and accurate way than humans can, especially because a large portion of research can often contain dealing with data.
Finance- Cognitive systems can analyze the market in specific ways and guide regarding investments. For example, it can analyze the history of a company’s shares in relation to external factors such as political, social, etc. This again.
Customer Experience and Sentiment Analysis- Forbes has stressed that customer experience is the new brand, and some have called it the modern battleground. To improve customer experience, it is important to understand the sentiment of customers around your brand or product. Cognitive computing can work with data that includes customer reviews, social media comments/posts, survey results. It can make sense of this data and pinpoint areas where changes are required.
Future of Cognitive Computing
The future of Cognitive Computing involves advanced cognitive systems capable of doing what machine learning systems can’t. They will intelligently and fluently interact with human experts, providing them with articulate explanations and answers, even at the edge of the network or in robotic devices. Across the board, people will see and work with systems endowed with rare and valuable intelligence. For example: Large fleets of ships currently operate largely unmonitored and un-instrumented, especially compared to other modes of transportation such as jets and smart cars. If we imagine supertankers as larger-than-average IoT devices, then they can be connected, tracked through networks of satellites, and coordinated efficiently by cognitive AI. State of the art AI systems can even predict shipping patterns for insight into supply and demand. Currently, most medical monitoring devices aren’t much more than dynamic alarm units. Cognitive AI can take smart medical devices to the next level by making it possible for two completely independent systems – one inside the body, the other attached to the body – to work in sync. Imagine an intelligent spinal alignment implant that could communicate with an intelligent prosthetic limb, coordinating strategies to improve a patient’s balance. This would allow them to walk confidently while increasing stamina and reducing strain, all while providing actionable data to physical therapists. This is a frontier where AI and robotics collaborate for human good. Cognitive artificial intelligence truly intelligent symbolic AI software with bio-inspired, human-like reasoning – will take automation technologies to the next level and enable enterprises to fully utilize their investments in advanced technology. Using cognitive AI, robots can work together to not only analyze time-sensitive data at the point of origin, but also diagnose and solve problems in real-time.
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