Category Archives: Application

Purpose-built AI builds better customer experiences

Beyond One-Size-Fits-All: Why Purpose-Built AI Elevates Customer Experiences to New Heights

In the age of digital transformation, artificial intelligence (AI) has become a cornerstone technology, driving innovations across various industries. 

Among the plethora of applications, purpose-built AI stands out as particularly transformative in enhancing customer experiences. Unlike general AI that addresses broader needs, purpose-built AI is tailored for specific tasks or challenges within a business. 

This specialization in functionality not only increases efficiency but also significantly improves the quality of customer interactions and satisfaction.

i. The Limitations of Generic AI

AI Learning and Artificial Intelligence Concept – Icon Graphic Interface showing computer, machine thinking and AI Artificial Intelligence of Digital Robotic Devices.

Traditional AI models are often trained on vast amounts of generic data. While these models can perform some customer service tasks, they may struggle to understand the nuances of specific industries or customer needs. This can lead to:

o Generic and impersonal interactions: Customers crave personalized experiences that cater to their unique needs and preferences. Generic AI can feel robotic and fail to connect on a deeper level.

o Inefficient problem-solving: Without a deep understanding of a specific domain, AI might struggle to identify and resolve complex customer issues effectively.

o Missed opportunities for personalization: Generic AI might miss opportunities to tailor recommendations, offers,or support based on individual customer behavior and preferences.

ii. What is Purpose-Built AI?

Purpose-built AI refers to systems that are designed and developed to solve a specific set of problems or to optimize certain processes. Unlike general AI, which aims at performing any cognitive task, purpose-built AI is highly specialized. Its architecture, data models, and algorithms are meticulously engineered to handle distinct tasks—from language processing in chatbots to predictive analytics in sales tools.

iii. The Power of Purpose-Built AI

Purpose-built AI, on the other hand, is specifically designed for a particular industry or task. Here’s how it elevates the customer experience game:

o Deeper Domain Expertise: Trained on industry-specific data, purpose-built AI understands the unique language,challenges, and opportunities within a particular domain. This translates to more relevant interactions and problem-solving capabilities.

o Hyper-Personalization: Purpose-built AI can analyze customer data to anticipate needs, personalize recommendations, and offer targeted support, leading to a more satisfying customer journey.

o Responsiveness: AI enhances customer service interactions through chatbots and virtual assistants. These AI systems are programmed to handle routine inquiries efficiently and escalate more complex issues to human representatives. This not only speeds up response times but also frees up human agents to focus on higher-value interactions, improving overall service quality.

o Consistency: With purpose-built AI, businesses can ensure a consistent customer experience. AI systems do not suffer from human error and can maintain the same level of service across various points of contact. This consistency builds trust and reliability, encouraging customer loyalty.

o Improved Efficiency: By automating routine tasks and streamlining workflows, purpose-built AI empowers customer service agents to focus on complex issues and foster deeper customer connections.

iv. Streamlining Customer Service

AI-powered chatbots and virtual assistants, designed specifically for customer service, can handle inquiries and issues efficiently, sometimes resolving scenarios without escalating them to human representatives. This rapid response leads to reduced wait times and higher customer satisfaction. Moreover, these systems can operate around the clock, providing constant support that significantly enhances overall customer service quality.

v. Predictive Analytics for Proactive Solutions

Purpose-built AI excels in predictive analytics, where AI systems analyze data to predict future trends and behaviors. This capability allows businesses to proactively address potential issues before they escalate or even anticipate customer needs. For example, if predictive analytics indicate that a customer may be experiencing issues with a product, proactive outreach can be initiated to offer support or a replacement, thus preventing dissatisfaction and building brand loyalty.

vi. Driving Operational Efficiency

By automating routine tasks, AI systems specifically developed for particular business functions can free up human workers to focus on more strategic, creative, or complex problems. This not only boosts productivity but also reduces human error and operational costs, ultimately impacting the business’s bottom line positively.

vii. Continuous Learning and Adaptation

Purpose-built AI systems are characterized by their ability to learn and adapt over time. They utilize machine learning algorithms to refine their operations based on new data, feedback, and outcomes. This continuous improvement cycle ensures that the customer experience is consistently becoming more effective and sophisticated.

viii. Implementation Examples in Industries

o Retail: Custom AI tools analyze consumer data to provide a curated shopping experience, manage inventories based on predictive analytics, and enhance customer service interactions through intelligent chatbots.

o Banking: AI systems designed for fraud detection not only protect customer assets but also increase their confidence in the security of their transactions. Additionally, AI-driven personalized financial advice adds significant value to customer interactions.

o Healthcare: AI applications in healthcare range from personalized patient care plans to AI-assisted diagnostics, significantly impacting patient satisfaction and outcomes.

o Travel and Hospitality: Tailored AI systems can manage bookings, provide personal travel recommendations, and predict peak demand periods for better resource allocation.

ix. Challenges and Considerations

While the potential of purpose-built AI is immense, deploying these systems comes with its set of challenges. 

Privacy concerns and ethical considerations must be carefully addressed to ensure that customer data is handled responsibly and transparently.

The need for constant updates, integration complexities, and ensuring AI ethics are adequately addressed are crucial considerations businesses must manage.

Moreover, the reliance on high-quality, extensive datasets for training these AI systems cannot be understated. 

Without robust data, the effectiveness of purpose-built AI could be significantly limited, which emphasizes the importance of good data governance practices.

x. The Future of Customer Experience: A Symbiotic Relationship

Purpose-built AI is not a replacement for human interaction; it’s a powerful tool to empower customer service teams. By leveraging AI’s deep domain knowledge and automation capabilities, human agents can focus on higher-level tasks like building rapport and resolving complex customer issues. This symbiotic relationship between human and machine paves the way for exceptional customer experiences.

xi. Conclusion

In conclusion, purpose-built AI is revolutionizing the way businesses engage with their customers, offering unprecedented levels of personalization, efficiency, and predictive insight. 

By harnessing the power of AI technologies, companies can build stronger, more meaningful relationships with their customers, driving increased satisfaction, loyalty, and long-term success.

As technology continues to advance, the role of purpose-built AI in shaping customer experiences will likely become more pronounced, offering exciting possibilities for businesses aiming to stay at the forefront of their industries.

xii. Further references 

SponsoredSAS Institutehttps://www.sas.com › cxReal-Time Customer Experience – Cracking Tomorrow’s CX Code

Sponsoredrezolve.comhttps://www.rezolve.com › commerce › aiEnhanced Customer Experience | Leverage AI In Your Tech Stack

LinkedIn · NICE10+ reactions  ·  2 weeks agoNICE on LinkedIn: Purpose-built AI builds better customer experiences

LinkedIn · Rohit Yadava10+ reactions  ·  4 weeks agoRohit Yadava on LinkedIn: Purpose-built AI builds better customer experiences

SurveySparrowhttps://surveysparrow.com › blog10 Excellent Ways AI will Improve Customer Experience in 2024

Business Insiderhttps://www.businessinsider.com › …Why purpose-built AI is key to improving customer experience

wep4.comhttps://wep4.com › why-is-purpos…Why is purpose-built AI important for improving customer experience – wep4

Harvard Business Reviewhttps://hbr.org › 2023/08 › using-ai…Using AI to Build Stronger Connections with Customers

CMSWire.comhttps://www.cmswire.com › the-bl…The Blueprint for AI Integration in Customer Experience Management

MIT Technology Reviewhttps://www.technologyreview.com › …Conversational AI revolutionizes the customer experience landscape

Trailheadhttps://trailhead.salesforce.com › i…Improve Customer Service Using Artificial Intelligence | Salesforce

Harvard Business Reviewhttps://hbr.org › 2022/03 › custome…Customer Experience in the Age of AI

TechTargethttps://www.techtarget.com › tipWill AI replace customer service reps?

Sprout Socialhttps://sproutsocial.com › insightsThe role of AI in creating a more human customer experience

FutureCIOhttps://futurecio.tech › ai-is-great-b…AI is great, but purpose-built AI is even better

KPMGhttps://kpmg.com › global-cee-2023AI and the orchestrated customer experience

Forbeshttps://www.forbes.com › allbusinessBuild A 5-Star Customer Experience With Artificial Intelligence

Time For a Device Refresh? Here’s What You Need to Know About On-Device AI

Exploring Edge Al: The Future of On-Device Intelligence

In the rapidly evolving world of technology, staying updated with the latest and most efficient devices is not just a luxury, but a necessity for those looking to leverage cutting-edge features. 

One of the most significant advancements in recent times has been the integration of Artificial Intelligence (AI) directly into personal gadgets and devices. 

As we venture deeper into the AI frontier, understanding the impacts and advantages of on-device AI becomes essential when considering a device refresh.

i. The Rise of On-Device AI

Traditionally, AI processes have been reliant on cloud computing, where data is sent to remote servers for analysis. While effective, this approach has limitations such as latency, privacy concerns, and dependency on internet connectivity. On-device AI, on the other hand, brings AI capabilities directly to your device, enabling faster processing and greater privacy.

ii. What is On-Device AI?

On-device AI refers to the capability of a device to process and execute AI algorithms locally, without needing to connect to the cloud or external servers. This method of processing is made possible by embedding AI processing capabilities directly into the device’s hardware. Key examples of on-device AI include smartphones that use AI for enhancing photos, voice assistants that process requests directly on the device, and wearables that provide real-time health monitoring and advice.

iii. Why On-Device AI Matters

On-device AI offers several advantages:

o Faster Performance: Processing data locally reduces reliance on cloud servers, leading to faster response times.

o Improved Privacy: Sensitive data stays on the device, potentially enhancing user privacy.

o Offline Functionality: On-device AI enables certain AI features to function even without an internet connection.

o Energy Efficiency: Local processing consumes less power compared to constantly transmitting data to remote servers, leading to improved battery life.

iv. Benefits of On-Device AI

The introduction of AI capabilities directly on devices has several compelling advantages:

A. Privacy and Security: By processing data locally, devices can significantly reduce the amount of personal data that must be sent to the cloud, minimizing privacy risks.

B. Speed and Reliability: On-device processing eliminates the dependency on internet connectivity and server response times, offering faster and more reliable performance.

C. Efficiency: Local data processing reduces the energy required to transmit data to and from the cloud, which can extend battery life and reduce bandwidth usage.

v. The Impact on Device Refresh

With on-device AI becoming increasingly important, here’s how it can influence your decision to upgrade a device:

o Evaluating Your Needs: Consider how you’ll leverage AI features. If on-device AI is crucial for your tasks, a newer device with a powerful processor and dedicated AI hardware (like an NPU) might be necessary.

o Future-Proofing: Newer devices are better equipped to handle the evolving demands of on-device AI applications. Upgrading now ensures you have the processing power for future advancements.

o Balancing Needs and Budget: If basic AI functionality suffices, you might not need the latest device. However, for power users who rely heavily on AI features, a refresh might be prudent.

vi. Applications of On-Device AI

A. Voice Assistants: On-device AI powers voice assistants like Siri, Google Assistant, and Alexa, allowing them to understand and respond to commands without relying solely on cloud processing.

B. Image Recognition: On-device AI enables smartphones to recognize objects, faces, and scenes directly from the camera app, without requiring an internet connection.

C. Health Monitoring: Wearable devices equipped with on-device AI can track health metrics such as heart rate, sleep patterns, and physical activity in real-time, providing valuable insights to users.

D. Autonomous Vehicles: On-device AI plays a crucial role in autonomous vehicles, enabling them to make split-second decisions based on sensor data without relying on cloud connectivity.

vii. Considerations for Device Refresh

When deciding whether it’s time for a device update focused on enhanced AI capabilities, here are several key considerations:

A. Current Device Limitations: Analyze whether your current device supports the AI-driven tasks that are most relevant to your needs. Does your smartphone struggle with voice recognition, or does your smartwatch lag when processing health data?

B. AI-Enhancement Features: Investigate what AI features the new device offers. For instance, newer smartphones might offer advanced photography enhancements like better night mode or refined AI-based image stabilization.

C. Cost vs. Benefit: Evaluate the cost of the new device against the benefits of the AI features. High-end devices often come at a premium, so consider whether the AI enhancements provide sufficient value for you.

D. Ecosystem Compatibility: Ensure that the new device is compatible with other devices and systems you use. Seamless integration can enhance the overall experience and utility of on-device AI.

E. Privacy Policies: Review the device manufacturer’s privacy policies to understand how your data is handled and whether on-device AI processes sensitive information locally without transmitting it to external servers.

F. Performance: Evaluate the performance of on-device AI features on the device you’re considering. User reviews and benchmark tests can provide valuable insights into real-world performance.

G. Future-Proofing: With the rapid development of AI technology, consider choosing a device that is likely to receive updates and support over an extended period.

viii. When to Consider an Upgrade

Upgrading to a device with robust on-device AI capabilities might be ideal if:

o You experience lag or sluggishness in AI-powered apps.

o You value privacy and want more control over your data.

o Your work demands offline access to AI features.

ix. The Future of On-Device AI

The trajectory for on-device AI is set towards more personalized and intuitive interactions between humans and devices. Future devices are likely to offer even more sophisticated AI operations that can learn and adapt to individual user needs without compromising privacy or efficiency.

x. Conclusion

A device refresh driven by the desire to harness the power of on-device AI can significantly enhance both personal and professional productivity. 

However, it requires a thoughtful analysis of what specific AI capabilities will meaningfully impact your daily device interactions. 

Understanding these aspects will ensure that your investment into a new device with powerful AI features is both strategic and beneficial. 

Whether for enhanced photography, smarter health monitoring, or seamless voice interactions, the latest in on-device AI is set to redefine our technological experiences.

xi. Further references 

Insighthttps://www.insight.com › en_USTime For a Device Refresh? Here’s What You Need to Know About On-Device AI

The World Economic Forumhttps://www.weforum.org › 2024/01Enabling the GenAI revolution with intelligent computing everywhere

ZDNethttps://www.zdnet.com › article5 top mobile trends in 2024: On-device AI, the ‘new’ smartphone, and more

XDA Developershttps://www.xda-developers.com › …On-device AI processing is the breakthrough we’re still waiting for

MIT Newshttps://news.mit.edu › technique-e…Technique enables AI on edge devices to keep learning over time | MIT News

Medium · David SEHYEON Baek3 months agoThe Rise of On-Device AI – Transforming the Future of Consumer Technology

LinkedIn · C Abor Jr6 reactions  ·  8 months agoExploring Edge AI: The Future of On-Device Intelligence

Canalyswww.canalys.comCanalys Insights – On-device AI and Samsung’s role in the future smart …

The Business of Fashionhttps://www.businessoffashion.com › …Incorporating AI Into Portable Devices and What It Means for the End Consumer | BoF

Financial Timeswww.ft.comCristiano Amon: generative AI is ‘evolving very, very fast’ into mobile devices

PCMaghttps://www.pcmag.com › … › AIMediaTek’s On-Device Generative AI Is the Fastest I’ve Seen

MIT Technology Reviewhttps://www.technologyreview.com › …On-Device AI – MIT Technology Review

ZDNethttps://www.zdnet.com › articleApple claims its on-device AI system ReaLM ‘substantially outperforms’ GPT-4

The Vergewww.theverge.comI went to paradise to see the future of AI, and I’m more confused than ever

Continuous Integration/Continuous Deployment (CI/CD)

Continuous Integration/Continuous Deployment (CI/CD) is a methodology used in modern software development to deliver code changes more frequently and reliably. The approach fosters a culture of regular, automated code deployments.

Continuous Integration (CI) is a coding perspective where developers merge their changes back to the main branch as often as possible, ideally multiple times a day. This usually involves an automated process for building and testing the software, ensuring that changes made by developers don’t break the product or introduce errors.

Continuous Deployment (CD), on the other hand, involves taking the validated changes from CI and automatically deploying them into production environments. This approach ensures users benefit from new updates quickly and minimizes the delay between software development and its use.

i. Key Components of CI/CD

A. Continuous Integration (CI):

   o Concept: Integrating code changes from multiple contributors into a shared repository frequently.

   o Goal: Detecting and addressing integration issues early in the development cycle.

B. Continuous Deployment (CD):

   o Concept: Automating the process of deploying code changes to production after successful CI.

   o Goal: Ensuring a rapid and reliable delivery pipeline from development to production.

C. CI/CD Pipeline:

   o Concept: An automated sequence of steps that include building, testing, and deploying code changes.

   o Goal: Streamlining the software delivery process, reducing manual interventions, and increasing efficiency.

D. Automated Testing:

   o Concept: Running automated tests during the CI/CD pipeline to validate code changes.

   o Goal: Ensuring code quality and identifying issues early in the development cycle.

E. Version Control:

   o Concept: Managing and tracking changes to source code using version control systems (e.g., Git).

   o Goal: Providing a collaborative and organized environment for developers to work on code.

F. Containerization (e.g., Docker):

   o Concept: Packaging applications and their dependencies into containers for consistency across different environments.

   o Goal: Ensuring that applications run consistently in various environments, from development to production.

G. Orchestration (e.g., Kubernetes):

   o Concept: Managing and automating the deployment, scaling, and operation of containerized applications.

   o Goal: Ensuring efficient and reliable containerized application management.

ii. General stages in a CI/CD pipeline

A. Source: The developer pushes the code to a version control system (like Git), which triggers the pipeline.

B. Build: This stage involves compiling source code into executable code. The steps might vary depending on the type of project.

C. Test: Automated tests are run to ensure the introduction of new code does not introduce any defects or bugs. This can include unit tests, integration tests, and more.

D. Deployment: The validated code is then automatically deployed to a production environment in CD.

E. Monitor & Validate: After deployment, the application’s performance is monitored to quickly identify and address any issues that may arise due to the new changes.

iii. Implementing CI/CD

A. Choose a CI/CD Toolset: There are many CI/CD tools available, so it is important to choose one that fits the organization’s needs and budget.

B. Define the Pipeline: The CI/CD pipeline is the set of steps that are automated to build, test, and deploy code changes.

C. Automate the Pipeline: Use CI/CD tools to automate the pipeline, including building, testing, and deploying code changes.

D. Continuously Monitor: Monitor the CI/CD pipeline to ensure that it is running smoothly and that all tests are passing.

iv. Benefits of CI/CD

A. Increased Software Quality: CI/CD helps to improve software quality by catching bugs early in the development process and automating the testing process.

B. Reduced Delivery Time: CI/CD enables developers to deliver software more frequently and reliably, which can lead to increased customer satisfaction.

C. Improved Collaboration: CI/CD provides a platform for developers to collaborate more effectively and share code changes more easily.

D. Reduced Costs: CI/CD can reduce the cost of software development by automating tasks and eliminating manual errors.

Implementing a CI/CD pipeline can help reduce errors in code, lower the cost of development, and speed up the overall development process. 

It requires a culture of continuous improvement and an investment in test automation and build automation tools but provides significant benefits in application quality and developer productivity.

By implementing CI/CD, development teams can accelerate the release cycle, reduce manual errors, and enhance the overall quality and reliability of software products.

https://circleci.com/ci-cd/#

https://www.browserstack.com/guide/difference-between-continuous-integration-and-continuous-delivery

https://levioconsulting.com/insights/intro-to-continuous-integration-continuous-delivery-and-continuous-deployment/

https://media.defense.gov/2023/Jun/28/2003249466/-1/-1/0/CSI_DEFENDING_CI_CD_ENVIRONMENTS.PDF

Application Classification

Application classification can refer to a number of concepts, many of which revolve around organizing software, data, and functions based on their purpose, features, or functionality. 

i. Purposes of Application Classification

A. Resource Allocation: Application classification helps organizations identify applications with similar resource requirements, enabling efficient resource allocation and planning.

B. Risk Management: Classifying applications based on their sensitivity and potential impact helps prioritize risk mitigation efforts and safeguard critical assets.

C. Cost Optimization: Identifying redundant or underutilized applications through classification can lead to cost savings and optimization of software licensing and maintenance expenses.

D. Compliance: Classifying applications based on data types, security requirements, and regulatory compliance can streamline compliance audits and ensure adherence to industry standards.

E. Application Rationalization: Application classification facilitates the identification of overlapping or outdated applications, enabling rationalization decisions to optimize the application portfolio.

ii. key aspects of application classification

A. Business Function: Classifying applications based on the business process they support, such as customer relationship management (CRM), supply chain management (SCM), or financial management.

B. Criticality to Business: Critical, Essential, Non-Essential: Classify applications based on their criticality to business operations. Critical applications are vital for core business functions, while non-essential applications may have less impact if disrupted.

C. Sensitivity of Data: Sensitive Data Handling: Classify applications based on the sensitivity of data they handle. Applications dealing with personally identifiable information (PII), financial data, or intellectual property may require heightened security measures.

D. User Access and Permissions: Privileged Access Applications: Identify applications that require elevated access levels or involve privileged operations. This classification helps manage user permissions and restrict access to sensitive functionalities.

E. Regulatory Compliance: Compliance-Critical Applications: Classify applications based on their relevance to regulatory compliance requirements. Certain applications may handle data subject to specific regulations, such as healthcare (HIPAA) or finance (PCI DSS).

F. Technology: Classifying applications based on their underlying technology stack, such as Java, .NET, or web applications.

G. Cloud-Native vs. Legacy: Cloud-Ready or Legacy: Differentiate between applications that are designed for cloud environments and those that may require modification or migration. This classification informs cloud adoption and modernization strategies.

H. Deployment Model: Classifying applications based on their deployment model, such as on-premises, cloud-based, or hybrid.

I. Lifecycle Stage: Development, Testing, Production: Classify applications based on their lifecycle stages. This helps manage development and testing environments separately from production and ensures appropriate controls at each stage.

J. Dependency Mapping: Interconnected Applications: Identify applications with dependencies on others. Understanding interconnections helps manage updates, maintenance, and potential impact on related systems.

K. Vendor Criticality: Vendor Dependency: Classify applications based on their reliance on specific vendors. Vendor criticality assessments inform risk management strategies, especially when dealing with third-party applications.

L. Access Channels: Web, Mobile, Desktop: Classify applications based on the channels through which users access them. This distinction helps tailor security measures for different access points.

M. Authentication Requirements: Authentication Intensity: Categorize applications based on the level of authentication required. High-security applications may demand multi-factor authentication, while others may rely on standard credentials.

N. Data Storage Locations: On-Premises, Cloud, Hybrid: Classify applications based on where they store data. Understanding data storage locations informs data residency considerations and compliance with data protection regulations.

O. Integration Complexity: Simple, Moderate, Complex: Assess the integration complexity of applications. This classification aids in prioritizing integration efforts and understanding potential challenges in interconnected systems.

P. User Impact upon Outage: High, Medium, Low Impact: Classify applications based on the potential impact on users in case of downtime. Critical applications with high impact may require more robust redundancy and disaster recovery measures.

Q. Security Posture: Secure, Needs Improvement: Evaluate the security posture of applications. This classification guides efforts to enhance security controls and address vulnerabilities.

iii. Benefits of Application Classification

A. Improved Application Portfolio Management: Classification provides a clear understanding of the application landscape, enabling better decision-making for rationalization, modernization, and resource allocation.

B. Enhanced Risk Management: Classification helps identify and prioritize security risks associated with different application types, enabling effective mitigation strategies.

C. Optimized IT Operations: Classification facilitates efficient resource allocation, cost optimization, and streamlined incident management.

D. Streamlined Compliance: Classification simplifies compliance audits and ensures adherence to industry standards and regulatory requirements.

E. Informed Decision-Making: Classification provides valuable insights for strategic planning, budgeting, and technology roadmap development.

The way an application is classified can affect various things such as its development process, how it is marketed, its user interface design, and how it integrates with other software.

Application classification is an essential practice for organizations that manage diverse application portfolios. It provides a structured approach to understanding, managing, and optimizing the application landscape, leading to improved IT governance, risk management, and cost efficiency.

https://docs.servicenow.com/bundle/sandiego-it-business-management/page/product/application-portfolio-management/concept/setup-appln-class-attrib.html

https://www.fingent.com/blog/a-detailed-guide-to-types-of-software-applications/#:~:text=Application%20software%20can%20be%20broadly,Applications%2C%20and%20Custom%20Developed%20Applications.

https://www.geeksforgeeks.org/software-engineering-classification-software/

https://www.leanix.net/en/wiki/ea/application-criticality-assessment-and-matrix

https://www.tutorialsmate.com/2021/09/types-of-software.html?m=1