Active Project — Meta

Yield Analytics & Reporting Transformation

Transform siloed yield data from testing equipment into real-time intelligence with automated burst reports, operator red-screen alerts, AI-generated weekly reports, and a generative self-service interface for Meta.

Real-Time AlertsBurst ReportsFault-Fix KBAI ReportingMeta Self-Service

Three Workstreams

Operator & Supervisor Empowerment

Real-time yield alerts, burst reports, and historical fault-fix guidance pushed to floor personnel.

Stakeholders

Operators, Supervisors, Ops Managers, PM, Engineering, Account Management

Automated Reporting Generation

Automated weekly reports identifying yield variances, root causes, and recommended actions.

Stakeholders

Meta, RXT Engineering, RXT Operations, Account Management

Meta Self-Service Interface

Generative AI interface enabling Meta to query yield, quality, and fault data on demand.

Stakeholders

Meta Program Team, Meta Quality, RXT Account Management

Current State Pain Points

Yield data siloed in test systems

Impact: No real-time cross-operation, cross-model, cross-workstation visibility

Root Cause: No aggregation layer or dashboard connecting test equipment data

Fault-fix knowledge in static Word docs

Impact: Operators cannot access solutions in context; knowledge lost with turnover

Root Cause: No link between fault codes and resolution database

No real-time alerts or thresholds

Impact: Yield problems persist for hours before detection; excess rework and scrap

Root Cause: No monitoring agent or threshold engine watching yield in real time

Manual report generation

Impact: Inconsistent formats; time-consuming; subjective root-cause analysis

Root Cause: No automated reporting pipeline from test data to formatted output

No feedback loop from resolutions to fault data

Impact: Cannot measure fix effectiveness or identify chronic issues

Root Cause: Offline resolution data not connected to fault code system

Meta cannot self-serve data

Impact: Every data request requires RXT effort; delays in Meta decision-making

Root Cause: No query interface or API for Meta to access yield/quality data

No supervisor burst reporting

Impact: Leadership unaware of intra-shift yield shifts; delayed corrective action

Root Cause: No automated periodic reporting to supervisors/managers

Future State

AI-Powered System Components

Phase 2

Hourly Burst Reports

AI agent continuously extracts yield performance and delivers automated burst reports every hour (configurable). Includes yield by workstation/operation/model, top fault codes ranked by frequency and impact, yield trend vs. 7-day and 30-day averages, and historical fault-fix solutions auto-surfaced.

Phase 2

Operator Red-Screen Alerts

When a workstation's yield drops below configurable thresholds (3 consecutive failures, yield below 85%, or high-severity fault code), the system flashes a red-screen alert on the operator's test station display with the specific fault code, recommended fix, and auto-escalation path.

Phase 1

Connected Fault-Fix Knowledge Base

Static Word documents ingested into a structured, searchable knowledge base linked directly to fault codes. When a fault fires, proven resolutions display automatically. New successful resolutions are captured and fed back. Engineering reviews resolution effectiveness over time.

Phase 3

AI-Generated Weekly Reports

Automated weekly reports with yield by model/operation/workstation/time period, week-over-week and month-over-month comparisons, variance analysis with correlated fault code data, root-cause identification, and structured action items. Consistent format, auto-distributed.

Phase 4

Meta Self-Service Query Interface

Generative AI interface for Meta to query yield and quality data directly in natural language. Example: 'What is the current yield for Model X at functional test?' Same real-time data pipeline as burst reports. Access controls protect RXT-internal operational details.

Phase 4

Continuous Learning Loop

Resolution effectiveness data feeds back into fault-fix recommendations. Models retrain on new response data. Burst report frequency and granularity expand based on Phase 2 learnings. KPIs tracked: yield improvement, mean time to detect, mean time to resolve.

Meta Self-Service Example Queries

Natural language queries Meta can run against the generative AI interface — drawing from the same real-time data pipeline as burst reports and weekly reports.

"What is the current yield for Model X at the functional test operation?"
"Show me the top 5 fault codes for Model Y over the last 30 days."
"Compare yield trends across all workstations for the cosmetic inspection operation."
"What actions has RXT taken in response to the yield drop on Model Z last week?"
"What is the resolution success rate for fault code FC-2041?"
Meta Engagement

Meta Feedback Architecture

Phase 3 (Setup)

Weekly Report Content Review

Meta defines what variances, formats, and action items they want in weekly reports. Joint working session to align on content requirements.

Phase 4 (Setup)

Self-Service Scope & Security

Joint agreement on what data Meta can query vs. what is RXT-internal. Access controls configured with Meta's approval.

Phase 2 (Milestone)

Pilot Yield Impact Review

Meta reviews yield improvement data from the Phase 2 pilot (alerts + burst reports). Provides feedback on alert thresholds and report granularity.

Phase 3 (Continuous)

Report Accuracy Validation

During Phase 3 transition, AI-generated reports are validated against manually produced reports. Meta confirms accuracy before switching to automated.

Monthly

Continuous Improvement Cadence

Monthly review of KPIs (yield improvement, MTD, MTR) with Meta. Feedback drives model retraining and report refinement.

Phase 4 (UAT)

Self-Service Interface Testing

Meta tests the generative query interface with real questions. Feedback on accuracy, response quality, and data coverage drives improvements.

Implementation Roadmap

Phase 1

Data Foundation

Build real-time yield data aggregation pipeline from test equipment (by workstation, operation, model)
Ingest fault-fix Word documents into structured, searchable knowledge base
Map fault codes to historical resolution entries; validate linkage accuracy
Define yield threshold parameters for red-screen alerts (by operation, model)
Establish data access and security model for Meta vs. internal visibility
Phase 2

Operator & Supervisor Alerts

Deploy red-screen alert system on test station displays (threshold-triggered)
Build fault-fix auto-lookup: surface recommended resolution on fault code occurrence
Launch 1x/hour burst report generation to supervisors, ops managers, PM, engineering, AM
Implement resolution capture workflow: operators log successful fixes back into knowledge base
Pilot with one model/operation; measure yield impact vs. control group
Phase 3

Automated Reporting

Deploy AI-generated weekly yield reports for Meta (variance, root cause, actions)
Deploy internal weekly reports with same structure plus operational detail
Build automated variance detection and fault-code correlation engine
Automate report distribution to all stakeholder groups
Validate report accuracy against manually produced reports during transition
Phase 4

Meta Self-Service & Optimization

Deploy generative self-service query interface for Meta (natural language)
Implement access controls: Meta sees program-relevant data; RXT internals protected
Build continuous learning loop: retrain fault-fix recommendations from resolution effectiveness data
Expand burst report frequency and granularity based on Phase 2 learnings
Reporting KPIs: yield improvement, mean time to detect, mean time to resolve, report generation time savings
Team Assignments

Exactly What Each Person Does

Every Dream Team member has explicit, actionable responsibilities for the Yield Analytics project.

AI Model Coach / Process Optimization Lead

Operations / Engineering

Specific Deliverables & Actions

Define yield threshold parameters for each operation and model — what constitutes a 'red screen' event?
Validate the fault-fix knowledge base: are the right resolutions linked to the right fault codes?
Review hourly burst reports during pilot phase — are the right metrics being surfaced? Is the ranking of fault codes by impact correct?
Design the A/B experiment: pilot one model/operation with alerts vs. control group without
Interpret weekly AI-generated reports: are root-cause identifications accurate? Are recommended actions actionable?
Provide structured feedback to retrain the variance detection and fault-code correlation engine
Define what 'statistically significant deviation' means for yield trend analysis (vs. 7-day and 30-day averages)

Meta Interface Responsibility

Reviews AI-generated weekly reports before Meta distribution; validates root-cause accuracy

Data Capture & Integration Specialist

Technology / Innovation

Specific Deliverables & Actions

Build the real-time yield data aggregation pipeline from test equipment to the AI model
Determine test equipment data export capabilities — what APIs exist? What formats? What refresh rates?
Ingest all fault-fix Word documents into the structured knowledge base — parse, clean, link to fault codes
Build the MCP connector that exposes Plus yield data to the AI model in standardized format
Configure the burst report generation and distribution pipeline (email, dashboard, or both)
Build the red-screen alert rendering system on test station displays — work with IT on display capabilities
Set up the resolution capture workflow: how do operators log successful fixes back into the knowledge base?

Meta Interface Responsibility

Provides Meta with API documentation for the self-service query interface; manages data access controls

Operations & Process Analyst

Operations / Quality

Specific Deliverables & Actions

Map the current yield monitoring workflow: how do supervisors currently learn about yield issues?
Define the burst report distribution list and escalation hierarchy — who gets what, when?
Train operators on the red-screen alert system: what to do when a red screen appears, how to log resolutions
Measure yield impact during pilot: compare yield, rework rate, and scrap rate between pilot and control groups
Track mean time to detect (MTD) and mean time to resolve (MTR) before and after deployment
Identify which fault codes are 'chronic' (recurring despite fixes) and escalate to engineering for root-cause investigation
Manage the transition from manual end-of-shift reporting to automated hourly burst reports

Meta Interface Responsibility

Coordinates with Meta on weekly report content requirements and delivery cadence

Engineering & Quality Lead

Engineering / Quality

Specific Deliverables & Actions

Curate the fault-fix knowledge base: validate that historical resolutions are accurate and complete
Define which fault codes should trigger red-screen alerts vs. which are informational only
Review resolution effectiveness data: which fixes are actually working? Which fault codes need deeper investigation?
Work with test equipment vendors to understand data export capabilities and integration options
Validate the AI's root-cause analysis in weekly reports against engineering judgment
Define the data access and security model: what can Meta see vs. what is RXT-internal?

Meta Interface Responsibility

Primary technical contact for Meta on yield data interpretation, fault code definitions, and quality standards

Project Manager / Scrum Lead

Program Management

Specific Deliverables & Actions

Own the 4-phase implementation roadmap: sprint planning, dependency tracking, milestone reporting
Manage the 7 open items list — assign owners, track progress, escalate blockers
Coordinate Meta engagement: schedule review sessions for weekly report content and self-service scope
Run weekly standups with the Dream Team; produce status reports for executive sponsors
Track KPIs: yield improvement, MTD, MTR, report generation time savings, operator alert response time
Manage the pilot → full deployment transition: change management, training, and rollout plan
Ensure the local site team is trained and ready to execute the new alert-driven workflows

Meta Interface Responsibility

Primary relationship manager with Meta program team; owns the communication cadence and escalation path

Open Items & Dependencies

#Open ItemOwnerPriorityBlocker
1Define yield threshold parameters for red-screen alerts by operation and modelRXT Engineering / OpsHighPhase 2 blocker
2Identify and collect all existing fault-fix Word documents for knowledge base ingestionRXT EngineeringHighPhase 1 dependency
3Determine test equipment data export capabilities and API/integration optionsRXT IT / Equipment VendorsHighPhase 1 blocker
4Agree on Meta self-service data access scope and security boundariesMeta / RXT JointMediumPhase 4 dependency
5Define weekly report content requirements with MetaMeta PM / RXT AMMediumPhase 3 input
6Determine burst report distribution list and escalation hierarchyRXT OperationsMediumPhase 2 input
7Evaluate test station display capabilities for red-screen alert renderingRXT IT / EngineeringHighPhase 2 blocker