WIPRO LINECRAFT AI · MANUFACTURING ANALYTICS

Reduce Downtime. Diagnose Faults. Eliminate Flow Losses.

Ikshana connects to shop-floor PLCs in real time to isolate downtime, overcycles, and equipment faults across your entire production line. By decoupling genuine machine breakdowns from upstream blocking and downstream starvation, Ikshana reveals the root causes behind every performance loss—showing teams exactly how to recover line throughput.

ROOT-CAUSE LOSS ATTRIBUTION Downtime Analysis · Machine Fault Isolation · Micro-Stoppage Detection · Line Flow Decoupling
THE PARADIGM SHIFT

Why Data-Driven Manufacturing Analytics Matters

Optimizing machines in isolation rarely increases line throughput. Meaningful production gains come from data-driven manufacturing analytics that model how interconnected stations, dynamic buffers, and machine events interact based on live datapoints.

Evaluation Area
Conventional Approach Isolated Asset Monitoring & Generic Copilots
Linecraft Ikshana Platform Data-Driven Line Flow Analytics
Operational Scope System vs Asset Modeling
✕
Machine Silos

Calculates isolated OEE per asset without line flow context, ignoring how upstream and downstream stations interact.

✓
Interconnected Line Modeling

Recreates continuous line flow, dynamic buffer capacities, and transfer intervals directly from sub-second PLC datapoints.

Bottleneck Detection Constraint Tracking
✕
Buffer-Blind & Static

Confuses genuine machine breakdown with line starvation and downstream blocking. Assumes static bottleneck locations.

✓
Transient Bottleneck Detection

Catches shifting dynamic constraints in real time as buffer levels rise and fall across serial and parallel conveyor networks.

Loss Attribution Root-Cause Tracing
✕
Alert Fatigue

Triggers hundreds of noisy micro-alarms per shift that have zero measurable correlation to finished line throughput.

✓
Root-Cause Decoupling

Traces throughput loss to exact machine states and timestamps, decoupling true downtime from conveyor-induced idle time.

Engineering ROI Capacity & CapEx Guidance
✕
Misdirected CapEx

Spends engineering hours or capital speeding up non-critical stations without producing a single additional finished part.

✓
Demonstrated Flow Potential

Unlocks proven, unrecovered machine capacity and directs engineering fixes strictly to pacing constraints with $0 CapEx.

INTELLIGENCE PLATFORM MODULES

Engineered for Interconnected Line Flow

Explore the purpose-built modules powering Ikshana's data-driven manufacturing analytics and bottleneck intelligence engine.

LINE FLOW ARCHITECTURE // SYSTEM DYNAMICS
50ms PLC SCAN ACTIVE

How Interconnected Line Flow Works

A modern production line is an interconnected ecosystem of machines, dynamic accumulators, and transfer gantries. When one machine stumbles, the ripple effect blocks upstream stations and starves downstream bays. Ikshana monitors the continuous line flow based on granular PLC datapoints to isolate the true pacing constraint.

SIMULATION MODE:
▦ LIVE LINE TOPOLOGY // SUB-SECOND PLC SYNC
OP10
BLOCKED
Stamping & Forming Press
Cycle Speed: 28.4s (Design 32s)
Line Status: +14.2s Waiting Discharge
Asset Health: 100% Operational
⚡ Inspect Telemetry
Upstream Stage
ACCUMULATOR 1 100% FULL
12 / 12 Parts Queued
Dynamic Buffer
OP20 · PACING BOTTLENECK
PACING CONSTRAINT
Multi-Spindle Robotic Torquing
Actual Cycle: 52.0s
Target Takt: 44.0s Target
Pacing Deficit: +8.0s (118% Takt)
⚡ Inspect Telemetry
Constraint Station
ACCUMULATOR 2 0% EMPTY
0 / 8 Parts Queued
Dynamic Buffer
OP30
STARVED
Laser Weld & In-Line Inspection
Cycle Speed: 34.0s (Design 38s)
Line Status: +18.0s Starved Idle
Asset Health: 100% Ready (Zero Alarms)
⚡ Inspect Telemetry
Downstream Stage
LINE EXIT
68 JPH
Target: 82 JPH
-14 JPH Line Loss
⚡ Yield Analysis
Finished Output
SCENARIO 01 // THE RIPPLE EFFECT

How One Bottleneck Silently Paralyzes Adjacent Stations

OP20 is lagging behind takt by 8 seconds per part. Because manufacturing is an interconnected flow, Buffer 1 quickly saturates to 100%, forcing OP10 into Blocked status. Simultaneously, Buffer 2 completely empties, forcing OP30 into Starved status. Both OP10 and OP30 are 100% healthy, yet neither can produce parts.

True Root Cause: OP20 Tool Clearance (+8s)
Cascade Loss: 18.4% Production Drain
False Machine Blame: Eliminated via Decoupling
DEMONSTRATED FLOW POTENTIAL SHOPFLOOR REPEATABILITY BENCHMARK
Proven capacity your physical assets have already achieved on the shopfloor during unblocked intervals.
Actual Shift Output
68 JPH
Capped by OP20 buffer delays
Demonstrated Flow Potential
84 JPH
Top 10% repeatable unblocked cycles
Capacity Headroom
+16 JPH
+23.5% Output Gain Available
Recoverable Capacity Value
$1.4M/yr
$0 Machinery CapEx Required
LIVE PLATFORM TELEMETRY

Interconnected Line Flow in Ikshana

Ikshana connects directly to native PLC registers and conveyor sensors at sub-second intervals. It reconstructs the continuous line pulse without modifying PLC ladder logic.

  • ✓
    Sub-Second Decoupling:

    Separates mechanical stoppage from buffer starvation and transfer gantry delays.

  • ✓
    Dynamic Bottleneck Tracking:

    Alerts when constraints migrate across stations due to variant mix changes or operator rotations.

  • ✓
    Buffer Capacity Modeling:

    Simulates accumulator sizing to prevent micro-stops from propagating across cells.

Ikshana · Production Line Flow Overview LIVE TELEMETRY
Ikshana Manufacturing Line Flow Overview live telemetry screen
PACING CONSTRAINT DETECTED
Cell 02 · OP20 Torquing

52s cycle time vs 44s takt pace. Creating 14.2s blockage on Cell 01.

BUFFER HEADROOM 0%
Accumulator 02 Starved

Downstream weld station starved of WIP for 18 minutes this shift.

LINE EXIT TELEMETRY
68 JPH Actual (84 JPH Peak)

Demonstrated Flow Potential proves 16 JPH recoverable capacity.

Templatized & Customizable Dashboards

View your line metrics and KPIs in a single glance. Customize views for operators, plant managers and executives, so everyone sees the data that matters most to them.

  • Real-time OEE tracking
  • Custom KPI widget builder
Dashboard module screenshot

Real-Time & Historical Machine Monitoring

Go beyond a simple up/down status. Monitor key physical parameters — like temperature, pressure and clamp times — for every cell on your line, polled at sub-second intervals.

  • High-frequency telemetry
  • Live state heatmaps
Machine monitoring module screenshot

Production Overview

See whether your line is meeting targets and monitor shift-level pacing in real time. Compare output across shifts, days and historical benchmarks.

  • Shift-to-shift comparisons
  • Target vs. actual pacing
Production overview module screenshot

Bottleneck Analysis

Automatically find which machines are the real constraint on your line. Stop spending money optimizing the wrong stations — let Ikshana's algorithm identify the actual flow restrictor.

  • Automatic constraint detection
  • Investment payback estimate
Bottleneck analysis interface screenshot

Critical Machine Analysis

Drill down into the specific assets that need closer monitoring, based on historical criticality. Set up SMS and email alerts for specific micro-fault conditions.

  • Condition-based triggers
  • Multi-channel alerting
Critical machine analysis module screenshot

Loss Attribution & Analysis

Stop guessing why you missed shift targets. Ikshana automatically captures and categorizes every micro-stoppage, so you can analyze each loss and its root cause instantly.

  • Automatic fault categorization
  • Waterfall loss charts
Loss management module screenshot

Lifecycle Part Tracing

Trace the exact lifecycle of a specific part through the entire production line, including every quality parameter and environmental condition at the moment it was processed.

  • Serial number genealogy
  • Quality parameter stamping
Part tracing module screenshot

Real-Time, Configurable Alerts

Get notified the moment a machine deviates from its normal range — before a micro-fault turns into unplanned downtime. Set thresholds per machine, per shift, or per line.

  • Configurable threshold alerts
  • SMS & email notifications
Condition monitoring module screenshot

Industry-Standard Reports

Create and schedule reports using out-of-the-box templates, or build your own — so plant managers and executives get the numbers they need without asking someone to pull a spreadsheet.

  • Scheduled report delivery
  • Out-of-the-box templates
Reports module screenshot

Configuration Manager

Map your raw PLC tags to standardized data definitions in minutes, using a visual interface — no custom ladder logic or edge code required.

  • Visual tag mapping
  • Standardized tag definitions
Configuration manager module screenshot
THE METHODOLOGY

From Shopfloor Datapoints to a Mathematical Line Model

A five-phase engineering process that turns raw PLC telemetry into actionable throughput gains.

01

Connect & Map

An industrial edge appliance connects non-invasively to your machine PLCs, mapping line topology, buffer capacities, and tag registers without modifying PLC code.

02

Stream High-Frequency Signals

Captures sub-second machine states, mechanical cycle durations, and buffer fill levels via secure industrial protocols to your on-premise server or private cloud.

03

Build the Mathematical Line Model

Our discrete-event engine models dynamic flow and buffer levels across all assets directly from actual shopfloor data, separating genuine station downtime from upstream starvation and downstream blocking.

04

Isolate Transient Bottlenecks

Identifies shifting constraints in real time, computes their exact throughput loss, and traces each loss back to root machine events.

05

Execute High-Gain Fixes

Gives continuous improvement teams prioritized actions showing exactly where cycle time reductions or reliability fixes produce the greatest line output gain.

LIVE TELEMETRY CONSOLE 1,000 Hz INDUSTRIAL POLLING
Phase 1: Connect & Map