Kavya Jyothi

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Kavya Jyothi

Kavya JyothiKavya JyothiKavya Jyothi
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AI-Powered Troubleshooting Portal


A full UX case study showcasing research, ideation, system d

AI-Powered Troubleshooting Portal for Industrial Controller

1. Overview

Role: Senior UX Designer (Lead)Domain: Industrial UX + AI Systems (Semiconductor Manufacturing)
Users: Fab Technicians, Remote Service Engineers, SMEs, Managers
Deliverables: Research → Personas → Affinity Map → IA → Flows → Wireframes → UI → Prototype → Testing

Duration: Approx. 6 months
Goal: Reduce troubleshooting time and empower technicians to resolve eligible issues quickly using AI + a safe Quick Fix action.

2. Context & Background

High-volume semiconductor equipment consists of complex controllers, hundreds of sensors, actuators, and interlocks.
When abnormalities occur, fab technicians file service requests. Engineers must analyze logs, identify root causes, and guide fixes.

The existing process was:

  • Slow (40–80 minutes per issue)
  • Manual log interpretation
  • Inconsistent troubleshooting 
  • Repeated simple issues consuming engineer time 
  • No real-time explainable AI support 
  • Limited visibility for technicians

3. UX Research

3.1 Research Activities

I executed a 4-stage research plan:


1. Stakeholder Interviews

  • Engineering managers
  • Product owners 
  • AI/ML team 
  • SMEs 
  • Process engineers
     

2. User Interviews

  • 12 remote service engineers
  • 6 fab technicians 
  • 3 maintenance managers
     

3. Contextual Inquiry

Observed:

  • Controller log interpretation 
  • Parameter cross-checking 
  • Trend analysis 
  • Ticket lifecycle
     

4. Artifact Review

  • 200+ sample log files 
  • Error code tables 
  • SOPs & maintenance manuals 
  • Past service requests

User Personas

User Personas

User Personas

Persona 1 — Remote Service Engineer “Daniel”


  • Age: 32 
  • Experience: 4 years 
  • Motivation: Resolve tickets fast, reduce dependency on SMEs 
  • Pain Points:
    • Logs take too long to analyze
    • Too many repeated low-severity issues
    • AI predictions lack clarity 
  • Needs:
    • Transparency in AI reasoning
    • Structured troubleshooting steps 
    • Better visualization of logs

User Personas

User Personas

User Personas

Persona 2 — Fab Technician “Mei”


  • Age: 26 
  • Experience: 1–3 years
  • Motivation: Keep the tool running and prevent downtime 
  • Pain Points:
    • Must wait for engineer response
    • No visibility into progress
    • Simple issues take too long to fix
  • Needs:
    • Clear status updates
    • A safe “Quick Fix” option
    • Easy-to-follow guidance

Empathy Maps

Empathy Maps

Empathy Maps

Engineer Empathy Map

  • Thinks: “I need reliable predictions; guessing wastes time.” 
  • Sees: Large logs, inconsistent ticket notes. 
  • Does: Reads logs line-by-line; compares with history. 
  • Feels: Overloaded with repeated small issues.

Empathy Maps

Empathy Maps

Empathy Maps

Technician Empathy Map

  • Thinks: “I wish common issues were instantly fixable.” 
  • Sees: Downtime pressure 
  • Does: Files ticket, waits, follows steps 
  • Feels: Frustration when issues are repetitive

6. Affinity Mapping

I synthesized all research into 4 major themes:


Theme 1 — Trust in AI

Users need explainable predictions.


Theme 2 — Standardization Gap

Engineers follow different troubleshooting processes.


Theme 3 — Communication Gap

Technicians lack visibility into engineer actions.


Theme 4 — Repeated Low-Risk Problems

27% of tickets were solvable with known, simple actions → opportunity for Quick Fix.

7. Problem Definition

Core Problems

  1. Log analysis is time-consuming
  2. Troubleshooting steps vary person-to-person 
  3. Technicians wait for simple fixes 
  4. Lack of transparency reduces trust

8. Ideation & Concept Development

I conducted structured ideation using:


1. Crazy 8s

Generated 8 variations for:

  • AI Insights 
  • Quick Fix UI 
  • Error state handling 
  • Step guidance
     

2. “How Might We…”

  • HMW automate simple fixes? 
  • HMW make AI explainable? 
  • HMW standardize troubleshooting? 
  • HMW support technicians without risk?
     

3. Co-Design Sessions (with SMEs)

Reviewed:

  • Which issues can be safely automated 
  • Which actions technicians can perform 
  • Required safety validations

9. Key UX Concepts Applied

  • Human-centered design
  • Information Architecture 
  • Interaction design 
  • Explainable AI (XAI) 
  • Affordances & constraints 
  • Progressive disclosure 
  • Error-prevention design 
  • Cognitive load reduction 
  • Accessibility compliance 
  • Industrial safety UX

10. Information Architecture

Technician Portal

  • Dashboard 
  • Create Ticket 
  • Quick Fix (Eligible Issues Only) 
  • Step-by-step Guidance 
  • Ticket Timeline 
  • Resolution Summary
     

Engineer Portal

  • Ticket Workspace 
  • AI Insights 
  • Controller Health Snapshot 
  • Troubleshooting Flows 
  • Knowledge Base 
  • Past Resolutions
     

User Flows & Task Flows

User Flows & Task Flows

User Flows & Task Flows

Technician Flow

  1. Notices tool issue
  2. Opens portal 
  3. Creates service request 
  4. Portal evaluates eligibility for Quick Fix 
  5. If eligible → Quick Fix shown 
  6. Technician executes Quick Fix 
  7. System verifies resolution 
  8. Ticket resolves automatically or escalates

User Flows & Task Flows

User Flows & Task Flows

User Flows & Task Flows

Engineer Flow

  1. Ticket assigned
  2. Upload log → AI parses patterns
  3. Review root cause suggestions 
  4. Examine explainability panel 
  5. Enter guided troubleshooting flow 
  6. Complete steps 
  7. Add resolution summary 
  8. Ticket closes

12. Wireframes

My Background

My Background

My Background

Low-Fi Wireframes

  • Created rough sketches for Quick Fix screen
  • Log insight module 
  • Root-cause dashboards 
  • Ticket overview.

My Skills

My Background

My Background

Mid-Fi

  • Data density planning
  • Hierarchy planning
  • Navigation model 
  • Step-by-step flow layouts

My Projects

My Background

My Projects

High-Fi

  • Industrial dark mode + light mode
  • Final components
  • Visual anomaly graphs
  • Interlock warnings
  • Progress states

13. Prototypes

I created interactive prototypes in Figma for:

  • AI Insight Dashboard 
  • Quick Fix Flow 
  • Troubleshooting Stepper 
  • Ticket Timeline 
  • Controller Health Summary
     

Included:

  • Interaction states 
  • Edge cases 
  • Error screens 
  • Success/failure validation

14. Usability Testing

Participants

  • 8 engineers 
  • 5 technicians
     

Tasks Tested

  • Using Quick Fix 
  • Understanding AI suggestions 
  • Navigating troubleshooting flows 
  • Reading anomaly graphs 
  • Completing resolution steps
     

Outcomes

  • Quick Fix highly appreciated 
  • AI became “trustworthy” only after adding explainability 
  • Technicians needed simplified language 
  • Engineers liked dense data view
     

Iterations Based on Findings

✔ Added rationale under Quick Fix
✔ Improved trend graph clarity
✔ Added technician-friendly vocabulary
✔ Used collapsible sections to control density

15. Impact

Quantitative

  • 27% of tickets resolved using Quick Fix 
  • 42% reduction in troubleshooting time 
  • 30% reduction in manual log analysis 
  • 2× faster onboarding for new engineers
     

Qualitative

  • Engineers felt empowered by structured flows 
  • Technicians gained autonomy 
  • SMEs approved knowledge retention from system

16. Final Deliverables

  • Personas 
  • Affinity Map 
  • Empathy Map 
  • Journey Map 
  • Information Architecture 
  • User Flows 
  • Task Flows 
  • Wireframes (low-mid-high) 
  • UI Design 
  • Clickable prototype 
  • Design documentation for dev teams

What I learnt

Designed an AI-driven diagnostic and troubleshooting platform for complex semiconductor equipment. Introduced explainable AI predictions, guided troubleshooting workflows, and a safe Quick Fix feature enabling technicians to resolve low-risk issues instantly—reducing ticket load, improving transparency, and significantly accelerating issue resolution.


  • AI in industrial UX must be explainable 
  • “Quick Fix” requires strict safety rules 
  • Technicians value autonomy 
  • Engineers value structure 
  • Domain knowledge grows through SME collaboration 
  • Industrial UX demands clarity, trust, and zero ambiguity

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