End-to-end automation accomplished by harnessing the power of multiple technology
Use of advanced technology to automate tasks that were once completed by humans.
Key Component of Hyper-Automation: Robotic Process Automation (RPA)
Leverages technology like software bots to replicate repetitive human tasks
Typically works for tasks that are rule-based, have defined inputs and outputs, are repeatable, and occur often
Key Component of Hyper-Automation: Business Process Management (BPM)
One of the most important components
Foundation of any successful automation strategy is built, monitored, and improved
Key Component of Hyper-Automation: Artificial Intelligence (AI)
Method of making computers operate in ways that stimulate human intelligence
Used by organizations to carry out specific tasks without being explicitly programmed to do so
Key Component of Hyper-Automation: Machine Learning (ML)
Often used synonymously with AI
Branch of AI that uses computer algorithms to allow systems to automatically improve over time
Key Component of Hyper-Automation: Advanced Analytics
Offers organizations powerful analytical tools and capabilities
Helps organizations to access and analyze data that has traditionally been accessible to gain important organization level insights
Benefits of Hyper-Automation: Flexibility
Organizations can move past the limited benefits of a single digital technology since hyper-automation relies on a multitude of automation technologies
Helps organizations to achieve scale and flexibility in operations
Benefits of Hyper-Automation: Improved Employee Productivity
By automating time consuming tasks, employees are able to get more done with less resources and serve more valuable roles in organizations
Benefits of Hyper-Automation: Integration
Organizations can integrate digital technologies across their processes and legacy systems
Stakeholders have better access to data and can communicate seamlessly throughout the organization
Benefits of Hyper-Automation: Improved ROI
Boosts revenue and reduces cost
Organizations can optimize deployment of their resources with powerful analytical tools and capabilities
Current Trend: Multi-Experience
Involves developing fluent customer experiences across websites, apps, and modalities of voice, touch, and text, irrespective of the channel
Business adaptation of technologies like AR, VR, MR, voice, chatbots, wearables, has led to the evolution of this
Current Trend: Multi-Experience
Emergence of this development would help businesses fo beyond the traditional ways of connecting with users and develop voice, chat, wearable, and AR experiences in support of the digital business
Users would have the exact same experience with a business regardless of how they initiated the interaction like a true multi-experience scenario
Benefit of Multi-Experience: Improved Operational Efficiency
Becomes easier than ever to streamline business processes with very process being present in one system
Enables enterprises to create efficient, faster, and valuable digital experiences
Benefit of Multi-Experience: Minimize the Time to Market Apps
Enabling this will help brands significantly improve development time by as much as 10 times
All credit reusable code and streamlined designed processes
Benefit of Multi-Experience: Enabled Controlled Deployment
A single cloud-based deployment that takes few weeks, can now be sent directly to cloud-based server providers
Giving better control and fast-tracked deployment
Benefit of Multi-Experience: Remove Security Risk
Enabling this can help enterprises get a 360 view of their software landscape with all the applications feeding to a single platform
Eliminating all the potential security risks like Shadow IT
Current Trend: Democratization
Providing people with easy access to technical or business expertise without extensive (and costly) training
Technical and business expertise should be accessible
Current Trend: Democratization
Focuses on four key areas that is often referred to as "citizen access" which has led to the rise of citizen data scientists, citizen programmers, and more
Application development, data ana analytics, design, and knowledge
Key Area of Democratization: Development
AI PaaS provides access to sophisticated AI tools to leverage custom-developed applications
These solutions provide AI-model-building tools, APIs and associated middleware that enable the building/training, deployment, and consumption of machine learning moderns running on prebuilt infrastructure-as-cloud services
These cover vision, voice, and general data classification and prediction moderns of any type
Key Area of Democratization: Data and Analytics
The tools used to build AI-powered solutions, including AI infrastructure, AI frameworks, and AI platforms, were once catered to data scientists
The tools, AI platforms and AI services, are now targeting the professional developer community and the citizen data scientist
Key Area of Democratization: Design
Low-code application development platform tools used to builf AI-powered solutions are themselves being empowered with AI-driven capabilities, automating the development process of AI enhanced solutions
Key Area of Democratization: Knowledge
Non-IT professionals are able to access powerful tools and expert systems, enabling them to make full use of specialized skills and apply them well beyond their own knowledge and experience
Current Trend: Human Augmentation
Field of research that aims to enhance human abilities through medicine or technology
Has historically been achieved by consuming chemical substances that improve a selected ability or by installing implants which require medical operations which can be invasive
Current Trend: Human Augmentation
Augmented abilities have also been achieved with external tools such as eyeglasses, binoculars, microscopes, or highly sensitive microphones
AR and multimodal interactions technologies have enabled non-invasive ways to augment human
Current Trend: Human Augmentation
Wearable technologies may act as mediators for human augmentation, in the same manner as eyeglasses once revolutionized human vision
Use of technology to enhance a person's cognitive and physical experiences
Type of Human Augmentation: Physical Augmentation
Changed an inherent physical capability by impanting or hosting a technology within or on the body
Type of Human Augmentation: Physical Augmentation
Automatic or Mining Industries - Wearable to improve worker safety
Retail and Travel - Wearables to increase worker productivity
Type of Human Augmentation: Cognitive Augmentation
Enahnces a human's ability to think and make better decisions
Includes technology in the brain augmentation category as they are physical implants that deal with cogntive reasoning
Type of Human Augmentation: Cognitive Augmentation
Exploiting information and application to enhance learning or new experiences
Current Trend: Data Policing
Introduces cutting-edge technology that is changing how the police do their jobs and shows why it is more important than ever that citizens understand the far-reaching consequences of big data surveillance as a law enforcement tool
Current Trend: Data Policing
Data driven technologies serve a similar function by collecting crime and other data, analyzing this data to determine crime trends, and using knowledge of these trends to make predictions about future crimes
Current Trend: Data Policing
Data driven technologies serve a similar function by collecting crime and other data, analyzing this data to determine crime trends, and using knowledge of these trends to make predictions about future crimes
Risks of Data Policing: Data Quality
The effectiveness of predictive software relies on the quality of input data
If input data is inaccurate, incomplete, or skewed, this will significantly affect the quality of predictive outputs made by predictive software
Risks of Data Policing: Discriminatory Capacities
Use of predictive software can result in discriminatory outcomes
Evidence suggests that some police activity may disproportionately target members of marginalized groups and impoverished neighborhoods
Risks of Data Policing: Privacy Harms
Use of data driven technologies requires the collection of large quantities of data raising questions about the police's contributions to mass surveillance
Such surveillance poses significant risks, include violations of privacy rights
Current Trend: Machine Learning
Specific subset of AI that trains a machine how to learn
Science of getting computers to act without being explicitly programmed
Methods of Machine Learning: Supervised Learning
Algorithms are trained using labeled examples
An input where the desired output is known
Commonly used in applications where historical data predicts likely future events
Methods of Machine Learning: Unsupervised Learning
Used against data that has no historical labels
The system is not told the right answer
Algorithm must figure out what is being shown
Goal is to explore the data and find some structure within
Works well on transactional data
Methods of Machine Learning: Semi-Supervised Learning
Between supervised and unsupervised learning
Use both labeled and unlabeled data for training
Typically a small amount of labeled data and a large amount of unlabeled data
Systems that use this method are able to considerably improve learning accuracy
Methods of Machine Learning: Reinforcement Learning
Algorithm discovers through trial and error which actions yield the greatest rewards
Allows machines and software agents to automatically determine the ideal behavior within a specific context in order to maximize its performance