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Your ERP says 5,000 units. But where exactly are they?
Inventory accuracy is the foundation of operational excellence. Stockouts halt production lines. Excess inventory ties up capital. Manual counts waste hours and still produce errors. The gap between your ERP and reality costs you money every single day.
Our Inventory Management solutions deliver real-time visibility into stock levels, locations, and movements. From barcode scanning at receiving docks to RFID-enabled cycle counts, we ensure your ERP reflects reality—not yesterday's guesses. Whether you're managing raw materials, WIP, or finished goods across multiple warehouses, every SKU is tracked at the bin level.
We cover the full inventory lifecycle: procurement and receiving inspection, put-away and storage, cycle counting and audits, picking and shipping. Each workflow integrates directly with your ERP—SAP, Zoho, ERPNext, or Tally—so data flows automatically without duplicate entry.
Real-time visibility into every SKU, every location, every zone—so your ERP tells the truth.
Customer orders 500 units, your ERP says 5,000 in stock, but nobody knows where. Later you learn 4,200 are in a facility at capacity unable to ship for two weeks. ERP tracks totals, not locations. Planners over-order 20-30%, tying up resources and adding to storage requirements.
The IoTReady Operations Traceability Platform answers: "Where is my inventory and how much can I actually use right now?" Every receiving event, pick, transfer, and adjustment is captured with location, operator, timestamp, and reason. Open the dashboard and see SKU-12345: 5,847 units across 8 locations with breakdowns by warehouse, in transit, quality hold, and committed orders. Route orders to the right warehouse in seconds.
Create daily count lists focused on high-risk items: high-value materials, items with picking errors, numbers that look off. Staff counts 20-50 items daily on mobile devices. When system shows 150 and count shows 147, investigate while responsible person is on shift. Reorder alerts work per location with supplier lead times. System spots imbalances: 2,000 units in Warehouse A while Warehouse B (serving 70% demand) is nearly out. Most companies reduce inventory 15-25% while improving service levels.
flowchart LR
A["Inventory Events:<br/>Receiving, Picking,<br/>Transfers, Counts"] --> B["Record Transaction<br/>Location Timestamp<br/>Operator"]
B --> C["Update Real-Time<br/>Inventory<br/>Position"]
C --> D["Trigger Alerts:<br/>Reorder/Capacity<br/>Discrepancy"]
D --> E["Real-Time Dashboard<br/>Multi-Warehouse<br/>View"]
E --> F["Shortage/Excess<br/>Analysis &<br/>Rebalancing"] Real-time inventory management system with multi-warehouse visibility, continuous cycle counting, location-aware reorder alerts, and shortage/excess identification enabling optimized inventory distribution.
Every movement is captured with location, operator, timestamp. See quantity on hand, in transit, on hold, available for each SKU at each location. Answer 'How many units across all locations?' in seconds. Route orders correctly.
Most organizations carry 20-30% excess inventory and safety stock beyond actual variability needs. System spots hoarding, slow movers, and imbalances. Reduce inventory 15-25% while improving service levels and warehouse utilization.
Location-aware reorder points prevent stockouts. System calculates safety stock per warehouse based on local demand and lead times. Alerts trigger before threshold hit. Reorder on schedule instead of scrambling.
Custom electronics have 12-week lead times. One stockout stops your line for days or weeks. Your inventory system shows 20 units safe—but 18 are already assigned to orders. Replacement arrives bone dry. Lead times live in spreadsheets; demand forecasts change in different systems. Nothing talks to each other. You panic-buy safety stock, tying cash, then cut orders when demand drops. Your team firefights constantly.
A Critical Parts Tracker connects inventory, supplier lead times, and demand forecasts into one system. You provide three facts: daily consumption, supplier lead time, and safety stock target. The system calculates the reorder point mathematically: at 5 units daily with 60-day lead time, order when stock hits 370. No surprises, no panic.
The system adapts as conditions change, watching supplier performance and adjusting reorder points. When production schedules arrive, it checks: do you have parts? Warns your planning team weeks in advance, not hours before production. You eliminate panic-buying, prevent stockouts, and optimize cash tied up in inventory.
flowchart LR
A[Demand Forecast] --> B[Calculate Reorder]
B --> C[Generate PO]
C --> D[Track Shipment]
D --> E[Receive] Critical parts tracking with automatic reorder point calculation and supplier lead time management.
Track inventory, demand, and lead times together to reorder mathematically instead of guessing. Order too late: production stops. Too early: cash ties up.
(Daily demand × lead time days) + safety stock. At 5 parts daily, 60-day lead time: (5 × 60) = 300 units + safety buffer tells you when to order.
System watches on-time delivery. If supplier consistently arrives 5 days late, system adjusts lead time and reorders earlier based on actual performance.
Controlled environments face significant risks from unmonitored access and environmental drift. Clean rooms operating outside specification (e.g., 26.2°C when 20-25°C is required) can contaminate batches. Pharma warehouses with temperature excursions risk product integrity. Facilities often cannot answer auditor questions: "Who was in the clean room Oct 15 and why?" Badge readers record entries but isolate from production systems. Environmental sensors record temperature data isolated, unlinked to affected batches. Equipment location tracking is manual. FDA/MHRA audits demand environmental documentation, controlled area access logs, and chain of custody.
The IoTReady Operations Traceability Platform creates unified zone digital representation with integrated access control, environmental monitoring, asset tracking, and compliance reporting. Zone definition maps facility spaces (clean rooms, storage, production, packaging, quarantine) with access requirements, environmental parameters, asset locations, and compliance obligations. Badge readers, proximity cards, and biometric systems record who entered, when, where, and credential verification. Access rules enforce automatically: unauthorized entry without training blocks and logs. Environmental data streams real-time (thermometers, humidity, CO2, pressure); excursions trigger immediate alerts with context: which batch was manufacturing, who was present, duration, equipment operating.
Asset location via RFID, Bluetooth, barcode provides instant answers: "Where is environmental test chamber Zone A-2?" Returnable containers track to prevent loss. Month-end compliance reporting auto-generates: environmental logs, access logs, batch-to-zone correlations, and excursion incidents. Immutable audit trails provide defensible documentation for audits.
flowchart LR
A["Employee Approaches"] --> B["Scan Badge"]
B --> C["Verify Authorization"]
C --> D["Check Environment"]
D --> E["Record Entry & Monitor"]
E --> F["Generate Audit Trail"] Zone management system with integrated access control, real-time environmental monitoring, asset tracking, and automated compliance reporting for pharmaceutical and food production facilities.
Implementation typically spans 6-10 weeks for a mid-sized pharmaceutical facility. Timeline includes zone mapping, hardware setup, sensor integration, testing, and go-live.
Yes. Zone management integrates with existing badge systems, sensors, and equipment. Implementation supports phased rollout across facility zones.
Zone management reduces investigation time from 6-8 hours to 15-20 minutes by automatically correlating environmental data, batch locations, and personnel records.
An electronics manufacturer found 12% of inventory was obsolete after 18 months, blindsiding management. Pharma has it worse: a 4-year shelf-life product deteriorates 36-42 months before expiration. GAAP, IRS, FDA, and pharma regulations mandate systematic detection with documented evidence of obsolescence and disposition method.
The Obsolete Stock Detector on IoTReady's Operations Traceability Platform continuously analyzes inventory age. Manufacturing: items not moved in 365+ days flagged for review. Pharma: manufacturing dates flagged 120 days before expiration. Food/beverage: expiration dates flagged 60 days before expiration. Daily reports segment by risk: new (0-90 days), normal (91-365), slow (366-730), obsolete (730+). When items cross thresholds, they're auto-moved to "Disposal Hold" preventing picking. The system generates disposition tickets with context: quantity, age, and disposition status. Teams evaluate options: supplier return, secondary market liquidation, charitable donation, or scrap. The system automates liquidation using marketplace APIs and supplier returns. Compliance automation maintains immutable records satisfying IRS, GAAP, FDA, and pharma requirements.
flowchart LR
A[Age Calculated] --> B[Flag Obsolete]
B --> C[Disposition Ticket]
C --> D[Execute Liquidation]
D --> E[ERP Write-Off] Automated obsolete inventory detection triggering disposition workflows, executing liquidation or return actions, and generating GAAP and tax compliance documentation.
Manufacturing carries 3-8% obsolete stock (average 5.2%). Automated detection enables 40-60% faster disposition versus manual processes.
GAAP (ASC 330) requires inventory at lower of cost or net realizable value. Must systematically identify unsaleable inventory quarterly with documented evidence and disposition records.
Supplier return: 14-30 days. Secondary market: 30-60 days. Donation: 7-14 days. Automated detector streamlines process versus 120-180 days manual handling.
A picker receives a pick list for SKU-4521 in bin B-7-3. Walks there. Finds empty shelves or a different product. The order is delayed. In a 5,000-SKU warehouse with 50 pickers, this happens constantly: 400-750 wasted labor hours weekly—equivalent to 2-3 full-time positions just searching. Location inaccuracy causes 20-30% of picking errors, affecting 0.5-1% of shipments. When items are in wrong locations, pickers substitute wrong SKUs to meet targets, causing customer failures.
The IoTReady Operations Traceability Platform solves this through real-time bin location verification. At receiving, the system assigns correct bin locations based on item characteristics, capacity, and rotation rules. When personnel move items, they scan both item and location barcodes. System records who put what where, when. If an operator tries to place wrong items together, the system blocks and directs to compliant location.
Location audits become continuous instead of annual. The system generates risk-based audit lists sampling high-value SKUs, items with recent discrepancies, items exceeding shelf-life, and locations approaching capacity. When wrong SKU is found, complete movement history appears. Accuracy metrics show which operators have high error rates, which locations have problems, and which shifts have quality issues. Inventory mysteries become solvable problems.
flowchart LR
A["Item Received"] --> B["Assign Location"]
B --> C["Scan Item & Location"]
C --> D{"Mismatch?"}
D -->|Yes| E["Alert & Block"]
D -->|No| F["Record Put-Away"]
E --> F Real-time put-away verification with accuracy metrics and root cause investigation.
Real-time verification confirms every item is placed correctly at receiving, eliminating the root cause of picking errors. Pickers find what they expect on first attempt, reducing substitution errors by 30-40%.
Location verification recovers 60-80% of wasted picking time within month one, reducing overall cycle time by 15-25%.
Integration with WMS systems (Manhattan Associates, Blue Yonder) happens via APIs connecting to receiving, put-away, and picking workflows. Put-away verification triggers after receiving, ensuring location accuracy at the source.
Manufacturers often lack real-time visibility into work-in-process (WIP) at critical stations. Materials pile up at bottleneck stations (testing, quality, packaging), causing lead time delays. WIP valuation without real-time tracking is estimated; without accurate data, accounting adjustments are frequent. Aerospace and automotive customers demand genealogy—complete traceability of which equipment processed each component and which supplier lots were used.
The IoTReady Operations Traceability Platform creates a complete shop floor digital twin. Work orders move between stages; technicians scan barcodes at gates. System records: "Work order PO-2024-5234 entered assembly at 9:15, completed at 10:02 after 47 minutes." Real-time dashboards show queue status and alert when orders pile up: "Testing queue 7 orders, average wait 68 minutes vs. target 30. Four downstream orders at risk." System tracks materials consumed (by supplier lot), labor time (by operator), and machine run time. System captures genealogy: "Product #FG-5234-0847 used component-XYZ from lot LOT-COMP-2024-1145, processed on line-2 by Johnson and Chen, checked by Martinez." Completion data automatically returns to ERP with actual materials and labor consumed.
flowchart LR
A["Work Order Released"] --> B["Stage Gate Entry"]
B --> C["Scan & Record Time"]
C --> D["Capture Costs"]
D --> E["Check Bottleneck"]
E --> F["Calculate WIP Value"] Real-time WIP tracking with stage-gate visibility, material and labor cost accumulation, bottleneck detection, and complete material genealogy for aerospace traceability.
Real-time WIP visibility reduces lead times 25-35%. A 14-day baseline can achieve 9-10 days through bottleneck detection and queue management.
Real-time tracking enables 20-30% WIP reduction by identifying and clearing bottlenecks, improving queue flow and material throughput across the shop floor.
Real-time consumption capture eliminates month-end valuation estimates. Actual materials and labor tracked continuously provide accurate, audit-ready WIP records.
Enforce FIFO/FEFO rules, manage expiry dates, and prevent expired product from reaching customers.
One incident—expired medication reaching patients, spoiled food on shelves—triggers regulatory action, recalls, and irreversible brand damage. The problem: expiry dates captured at receiving but not enforced during picking. Inventory sits unmapped by expiration. Staff can't see which lots approach expiration. An Expiry Management System transforms manual checks into automated enforcement. When products arrive, capture expiration dates via barcode, OCR camera, or validated manual entry. Create lot-level visibility where one SKU contains multiple lots with different dates. Real-time monitoring auto-categorizes: Green (>30 days), Amber (7-30 days), Red (<7 days), Critical (0-3 days). FIFO/FEFO enforcement prevents expired products by auto-allocating from oldest or soonest-expiring lots when picking. Staff attempting wrong lots get blocked and shown correct location. Immutable audit trails prove FIFO compliance.
flowchart LR
A[Product Received] --> B[Capture Expiration]
B --> C[Monitor Status]
C --> D[Enforce FIFO/FEFO]
D --> E[Pick to Ship]
E --> F[Compliance Ready] Expiry management from receiving through continuous monitoring, FIFO/FEFO-enforced picking, and compliance documentation.
FIFO: pick oldest received first, regardless of expiration. FEFO: pick soonest-expiring first, regardless of receipt date. Use FIFO for non-perishables (lubricants, chemicals). Use FEFO for perishables, pharmaceuticals, shelf-life-sensitive materials where expiration matters most.
Capture dates at receiving, monitor continuously, enforce FIFO/FEFO picking. When picking orders generate, auto-allocate from oldest or soonest-expiring lots first. Staff attempting wrong lots get blocked with correct location displayed. Enforcement plus auto-alerts eliminates errors.
Reduce waste significantly, eliminate expired product incidents, prevent regulatory penalties, and reduce labor from manual checking. FIFO/FEFO enforcement ensures compliance across all picking operations.
Warehouse has 847 partial lots of Material A scattered across 23 locations with different supplier lot numbers and expiration dates. 40-cubic-foot pallets split into 12 locations waste space. Planners can't see available inventory, so they order new material. Pickers pull from 8-12 different lots to fill one order, hand-tracking genealogy. FDA requires traceability at supplier-lot level. Hand-tracking creates errors and genealogy gaps trigger audit findings.
Consolidating without traceability breaks compliance—you can't combine lots and lose track of originals. Consolidating without genealogy creates regulatory nightmare.
The IoTReady Operations Traceability Platform enables lot consolidation while preserving genealogy traceability. System analyzes inventory and identifies consolidation opportunities by material, segmented by constraints: supplier lot number (traceability), expiration date (shelf-life), receiving date (FIFO). Consolidation analysis shows which units can consolidate, which require FIFO, which cannot (quality holds, reserved orders). Strategy calculates space savings, picking time reduction, genealogy simplification.
When approved, system guides consolidation while maintaining immutable genealogy. Consolidation record maps every unit back to original supplier lot. System captures quality gates: visual inspection, scale verification, label verification. Post-consolidation, system maintains genealogy. When production pulls units, system records which original lots were consumed. If quality event occurs, query "Which supplier lots contributed?" System returns lots with unit counts, enabling targeted investigation.
flowchart LR
A["Fragmented Partial<br/>Lots Across<br/>Locations"] --> B["Analyze & Calculate<br/>Consolidation<br/>Candidates"]
B --> C["Generate Work<br/>Order & Pick<br/>from Original Lots"]
C --> D["Quality Gate:<br/>Inspection &<br/>Verification"]
D --> E["Create Immutable<br/>Genealogy Map<br/>to Original Lots"]
E --> F["Production Pulls<br/>FIFO with<br/>Genealogy Recording"] Lot consolidation workflow captures fragmented partial lots, maintains immutable genealogy mapping to original supplier lots, enables FIFO production pulling with genealogy recording, and supports traceability queries.
Space savings range 12-40%, recovering underutilized storage capacity for growing inventory.
Yes. Genealogy maps consolidated lots back to originals. Maintains 'one step forward, one step back' traceability.
Consolidation reduces picking time 30-45%. Before: 8-12 lots, 2-4% error rate. After: 1 location, <0.5% error rate.
Warehouse shows "500 units in stock" but you don't know when they arrived or which expire first. Staff pick from whatever's convenient. Oldest stock expires unsold. You discover 12% of inventory is expired. Regulators finding expired product issue FDA warnings. Recalls happen with no proof of which batches shipped before the recall date.
The core problem: you capture quantity but not receipt or expiration dates. You don't enforce FIFO/FEFO—staff use convenience. Expiration monitoring is manual shelf checks, reactive instead of proactive. Expired product walks out the door because nobody knew it was expiring.
The IoTReady Operations Traceability Platform makes inventory age and expiration instantly visible. Receiving captures product, expiration date, received date, exact location. Staff scan barcodes to confirm dates. System flags high-rotation urgency items: "Batch 2024-0847 expires in 6 days. Prioritize this batch." Real-time dashboards show products expiring in 7, 30, 90 days, ranked by urgency. Picking is enforced FIFO/FEFO—when customers order, system sequences picks by expiration date (nearest first). Pick lists guide staff to correct shelves in order. Expired product never ships.
Auditors get complete documentation instantly: receiving reports sorted by expiration date, pick records showing which customer received which batch and date, rotation proof that fresh product delivered before older inventory. Inspectors scanning products get complete genealogy: batch, received date, location, expiration, who picked it, destination. No surprises.
flowchart LR
A[Receiving] --> B[Capture Expiry Dates]
B --> C[Monitor Expiration]
C --> D[FIFO/FEFO Pick]
D --> E[Audit Trail] FIFO/FEFO-enforced picking with real-time expiration monitoring, alerts, compliance documentation, and regulatory audit readiness.
Food and beverage distributors lose 8-15% of inventory annually. Pharma chains lose 3-8%. Automated FIFO/FEFO reduces waste 60-75%, eliminating spoilage within 90 days.
FDA warning letters require mandatory corrective action and audit compliance. Non-compliance can escalate to product seizure and operational restrictions. Compliance-ready systems eliminate enforcement actions.
FIFO picks oldest received first. FEFO picks expiring-soonest first. FEFO required for perishables, biologics, chemicals. FIFO acceptable for long-shelf-life products. FDA expects FEFO when available.
Automate inbound workflows from dock to stock—with quality checks at every step.
Incoming materials are inspected using printed plans. Measurements get recorded on paper forms, then transcribed into spreadsheets days later. Defective materials slip past receiving and get discovered downstream during manufacturing, triggering rework or scrap. Detecting defects early at receiving is far more efficient than discovering them after value-add operations. Supplier scorecards are based on months-old delivery data and anecdotal complaints, not real-time quantitative defect rates.
The IoTReady Operations Traceability Platform (OTP) digitizes the entire incoming verification process. When a shipment arrives, the system retrieves the inspection plan: which dimensions to measure, acceptable ranges, sample size (100% or AQL statistical sampling), and equipment. The receiving inspector uses the mobile app to conduct inspection. Inspector enters readings directly; each measurement displays green (in-spec) or red instantly. For visual attributes, the inspector taps options and captures photos as evidence. The system calculates sample statistics and determines accept/reject based on AQL. The entire inspection is timestamped, geotagged, and recorded with inspector ID. If it passes, material is auto-released. If it fails, the system auto-quarantines and triggers a rejection workflow immediately—supplier gets specific measurements that failed, photos of defects, and disposition.
flowchart LR
A[Shipment Arrives] --> B[Scan PO<br/>& Inspect]
B --> C{Pass or<br/>Fail?}
C -->|Pass| D[Release to<br/>Inventory]
C -->|Fail| E[Quarantine &<br/>Notify]
D --> F[Update Supplier<br/>Scorecard]
E --> F Receiving Inspection Tracker digitizing incoming quality verification with mobile measurement capture, instant acceptance/rejection decisions, and automatic supplier feedback.
IQC verifies supplier materials meet specifications before production. It's your last chance to catch defects before expensive downstream problems. Effective IQC prevents disruptions and ensures regulatory compliance.
Provide real-time feedback: which measurements failed, defect types, trends. Track first-pass acceptance and defects per million (PPM). Use objective data during renewals.
100% checks every unit for safety-critical components. Statistical sampling (AQL) inspects a subset; cost-effective for proven suppliers. Match method to risk.
Materials arrive with certificates proving they meet spec, but managing these documents is chaos. Physical certificates scatter across file cabinets. When an auditor asks "Prove titanium lot XYZ-001 met aerospace specifications," procurement teams spend hours digging through boxes and emails. When quality issues appear in finished products months later, you can't quickly trace them back to original material certificates to determine whether the problem started in raw material or your process.
The IoTReady Operations Traceability Platform (OTP) transforms material certification from fragmented paper and email into a unified digital repository with automated capture, OCR extraction, expiration tracking, and integrated traceability. Receiving staff photograph the physical certificate or upload the PDF. The system uses OCR to automatically extract key data: specification standard (ASTM, DIN, ISO), test results, certification date, expiration date, supplier name and lot number, and material grade.
The system maintains a master certificate repository indexed by material code, supplier lot, and standard. When production uses material from a specific lot, the system automatically links it to its original certificate: "Production Batch PB-2024-1247 consumed 150 units of Material XYZ from supplier lot AB-2024-567 certified 2024-10-08. All properties within specification." Expiration tracking is automatic with alerts at 90, 30, and 0 days before expiration. When finished products ship, the system generates complete certificate chains proving all material specifications were met. Regulated industries track supplier certification history for data-driven assessments.
flowchart LR
A[Material & Certificate] --> B[Capture &<br/>OCR Extract]
B --> C[Store in<br/>Repository]
C --> D{Expiration<br/>Valid?}
D -->|Yes| E[Link to Production<br/>& Certificate Chain]
D -->|No| F[Alert<br/>Expired] Automated raw material certificate management with OCR extraction, expiration tracking, and integrated traceability linking certificates to production batches.
Manual management requires 800-1,200 hours annually searching emails and file cabinets. Automated systems eliminate 70-85% of manual tasks, freeing procurement teams for supplier relationship management and strategic sourcing.
Manual retrieval takes 15-45 minutes per certificate. For 45-60 certificates: manual is 12-20 hours, automated is 10-15 minutes.
Automated linking reduces investigation time from 4-8 hours to 5-15 minutes. Root cause analysis becomes immediate instead of forensic, enabling fast corrective action and preventing material waste.
A cycle counter sees the system shows 150 units but counts 147 physical units. Mentally adjusting to 150 because the system is usually right, the discrepancy never gets detected. This psychological anchoring bias makes shrinkage invisible. A warehouse loses 300 units over three months. During monthly counts, counters see approximate system quantities and confirm them. The loss goes undetected for months. The loss gets written off as normal shrinkage. Retail chains lose 1-3% annually to shrinkage, but if counts are biased, actual loss might be 2-4% and remain invisible.
The IoTReady Operations Traceability Platform eliminates psychological bias through blind counting. Counters never see expected system quantities during counts. Mobile app shows item location and SKU, but not quantities. Counters perform honest physical counts based on observation. After submission, the system calculates variance. Variances exceeding configurable thresholds automatically trigger investigation. Investigation workflows capture location, item, expected versus actual, variance percent, physical evidence, and suspected cause.
Root cause analysis becomes possible: Location C-14 had 15 discrepancies quarterly—10 were misplaced items, 4 were receiving damage, 1 was count error. Investigation reveals specific training needs and process improvements. If blind count variance exceeds threshold, a different operator performs recount confirming accuracy or identifying systematic issues. Accuracy metrics show location performance, operator accuracy, and item variance patterns. Shrinkage hotspots trigger investigation and corrective action.
flowchart LR
A["Cycle Count Started"] --> B["Count Blind"]
B --> C["Calculate Variance"]
C --> D["Exceed Threshold"]
D --> E["Investigate & Recount"] Blind count verification with variance investigation and recounts for shrinkage prevention.
Blind counting eliminates psychological anchoring bias by hiding system quantities. Traditional counting shows quantities upfront, causing confirmation bias. Blind counting captures unbiased results revealing true discrepancies with documented tracking.
Yes. Blind count verification creates immutable logs capturing timestamp, operator ID, location, SKU, count, variance, and resolution. This satisfies SOX compliance by demonstrating unbiased methodology and systematic investigation.
Eliminates 1-3% of undetected shrinkage annually by preventing psychological bias and enabling systematic investigation of discrepancies.
Pharmaceutical manufacturers receive materials from many suppliers every week. Your receiving staff manually types CoA data into three systems—200 materials weekly is intensive transcription work. Transcription errors force batch holds and recalls; FDA auditors cite mismatches between typed values and originals.
Certificate of Analysis Auto-Extraction eliminates manual entry by scanning PDFs, images, faxes, and supplier portals—then extracting test data using advanced document intelligence that understands pharmaceutical lab formats. In seconds, the system extracts assays, purity, and microbiological tests, compares against specifications, and blocks out-of-spec materials automatically.
Extracted data automatically links to purchase orders and receiving records, creating FDA-compliant audit trails. When you manufacture batches, the system captures which material lots were used with CoA proof attached. Quality investigations drop from hours to minutes. Materials release faster with zero compliance citations for unmatched documents.
flowchart LR
A[CoA Arrives] --> B[Upload Document]
B --> C[AI Vision Extract]
C --> D[Compare to Spec]
D --> E[Approve or Block]
E --> F[Traceability Linked] Automated Certificate of Analysis extraction with specification verification and compliance audit trail generation.
AI extracts all data in seconds vs. 15-30 minute manual entry per document, eliminating errors that cause compliance violations.
Yes. Complete audit trails with original documents, extracted data with confidence scores, timestamps, and user identity. Creates traceable CoA-to-PO links with audit-ready reports.
Yes. PDFs, images, faxes, supplier portals, and EDI feeds. System parses lab layouts regardless of variation, adapting to each supplier's format.
When a shipment arrives damaged, your receiving team takes blurry photos without timestamps or context. When you file a carrier claim, they deny it: documentation doesn't meet standards. You miss the 14-30 day claim deadline. 15-40% of claims get denied due to inadequate documentation. Damaged goods accidentally ship to customers creating returns and warranty claims.
A Damage Assessment system captures documentation at the moment of discovery—high-resolution photos with automatic timestamps, severity classification, and geolocation. Receiving staff use a mobile app that guides structured capture: location, damage type, severity level. The system compiles carrier claim packages automatically with standardized descriptions and measurements. Claims file automatically, maximizing recovery. Damaged items get immediately quarantined, preventing accidental shipment to customers. Analytics show damage patterns by supplier, carrier, and route.
flowchart LR
A[Damage<br/>Detected] --> B[Mobile Capture<br/>Evidence]
B --> C[Auto-Compile<br/>Claim Package]
C --> D[File Claim &<br/>Quarantine Item]
D --> E[Track Recovery<br/>& Analytics] Damage assessment workflow from detection through mobile documentation, automatic carrier claim filing, quarantine enforcement, and analytics-driven supply chain improvement.
15-40% of claims get denied due to inadequate documentation. Standardized evidence with timestamps and photos recovers claims carriers now deny, significantly improving approval rates.
Carrier deadlines are strict (14-30 days). Mobile documentation captures evidence immediately. Claim-ready packages file within days, meeting deadline windows and maximizing approval probability.
Mobile assessment immediately quarantines items when identified, blocking allocation to customer orders. Damaged goods cannot reach customers.
Your receiving dock faces a critical choice: accept compromised packaging and risk recalls? Or reject and absorb logistics costs? Visual inspection is broken—no documentation proves packaging condition at receipt, creating supplier disputes and regulatory exposure.
The IoTReady Operations Traceability Platform (OTP) creates immutable proof of packaging condition. Your receiving team photographs incoming packaging using a mobile app: overall pallet views, close-ups of seals, edges, and any visible damage. Photos are timestamped, geotagged, and linked to purchase orders. The system guides inspection with customized checklists by material type. For pharmaceutical packaging: seal integrity, cap function, no foreign material, proper labeling, correct lot numbers. Failed batches trigger rejection workflows and automatic supplier notification with evidence.
Accepted materials flow to production with full traceability—packaging lot number linked to specific production orders. If a product fails in the field, you trace back to that supplier batch, inspection date, and original photos proving receipt condition. Monthly Supplier Scorecards show acceptance rates, rejection patterns, and quality trends. Regulatory audits run faster: Receiving Inspection Audit Trail Reports document every receipt, inspection, and decision—production-ready proof of FDA/FSMA compliance.
flowchart LR
A["Materials<br/>Arrive"] --> B["App Scans<br/>PO & Supplier"]
B --> C["Inspection<br/>Checklist"]
C --> D["Photo<br/>Evidence"]
D --> E["Accept or<br/>Reject"]
E --> F["Supplier<br/>Scorecard"] Systematic packaging inspection workflow with photographic documentation, automated defect detection, and supplier rejection tracking for regulatory compliance.
FDA CFR Part 211.84 requires documented inspection before component use. Photo-verified inspection creates audit-ready documentation with timestamped photos and checklists in 15 minutes instead of days.
2-3 weeks for small companies. 4-6 weeks for mid-sized. 8-12 weeks for large enterprises with ERP integration. Most see benefits within 2 weeks.
Lot traceability creates unbreakable proof linking packaging lots to receipt photos and production orders, settling disputes about condition at receipt.
Suppliers must provide ISO 9001 certificates, IATF 16949/AS9100 compliance certs, material test reports, MSDS, FAI reports, PPAP records, supplier quality agreements—all with expiration dates. Certs expire yearly or bi-yearly. Test reports have shelf-life limits. One missing certificate or expired test report invalidates an entire batch. Production stops. Recalls get forced. Aerospace manufacturer discovers mid-production: supplier's AS9100 cert expired three months ago. Pharmaceutical company finds three critical suppliers missing COA records for six months. Food manufacturer's customer audit finds documentation scattered across email attachments, spreadsheets, file cabinets with no centralized management. No version control. No expiration tracking. Customer issues critical finding: "Demonstrate documented supplier documentation management system."
Documentation arrives through multiple channels: email, supplier portals, physical certs, customer docs. No centralized system exists. Expiration tracking is informal—maybe a spreadsheet, maybe discovered expired during audit. New suppliers are onboarded with no systematic way ensuring all required documents are requested and collected. Audit prep scrambles to assemble docs from scattered sources.
The IoTReady Operations Traceability Platform centralizes scattered supplier docs into one continuously monitored, audit-proof system with automated expiration alerts and compliance reporting. Centralized repository maintains complete document inventory by type. Expiration tracking is core with configurable alerts and automated renewal notifications. Document version control and audit trails preserve every version. Supplier qualification checklists automate onboarding. Compliance reports prove all suppliers documented and monitored. PO system integration prevents non-compliant supplier orders by checking doc status before placement.
flowchart LR
A[New Supplier] --> B[Request Documents]
B --> C[Monitor Expiration]
C --> D[Request Renewals]
D --> E[Audit Ready] End-to-end supplier documentation management from onboarding through qualification, continuous expiration monitoring, and compliance reporting.
Centralized repository eliminates scattered documentation. Automated expiration tracking prevents non-compliance. Real-time visibility enables audit readiness. Prevents production holds from missing or expired supplier certifications.
4-8 weeks depending on supplier count and data maturity. Week 1-2: setup and training. Week 2-4: data migration. Week 4-6: full reporting. Many organizations recover missing certs within first month.
Direct: customer audit failures, emergency re-qualification requirements. Indirect: production holds, customer penalties, contract impacts. Pharma FDA findings can result in product recalls. Centralized management eliminates these risks.
When defective materials need return, the process becomes chaotic: emails for authorization, waiting for RMA numbers, shipping without documentation, unclear verification, and credit memos disappearing. Without proof of what you shipped and its condition, disputes become difficult to resolve.
The IoTReady Operations Traceability Platform systematizes returns. When procurement identifies material for return, the system checks supplier policies and requests RMA numbers automatically. Before shipment leaves, the system captures high-resolution photos of defects, protective packaging, serial numbers, batch numbers, and condition notes—immutable proof. Real-time tracking maintains visibility. When the supplier receives items and scans the RMA, you verify what arrived. Quantity mismatch? Compare pre-shipment photos to supplier intake photos to pinpoint discrepancies. Supplier inspection results automatically generate disposition records and reconcile to accounts payable. Dashboards show supplier performance: receipt speed, resolution rates, and discrepancy frequency. This data drives supplier management decisions.
flowchart LR
A["Request RMA<br/>from Supplier"] --> B["Capture Photos<br/>& Documentation"]
B --> C["Ship to<br/>Supplier"]
C --> D["Supplier Receives<br/>& Verifies Qty"]
D --> E["Inspect & Issue<br/>Credit Memo"]
E --> F["Auto-Reconcile<br/>to Accounts Payable"] Return-to-supplier workflow with authorization, pre-shipment documentation, carrier tracking, supplier verification, and automated credit reconciliation.
Time-stamped photos of pre-shipment condition are immutable proof. When disputes arise, compare photos to supplier intake records. Discrepancies become clear and liability can be determined.
Without a system: 30-45 days. With tracking: 8-15 days. Automated RMA with photographic evidence accelerates resolution.
Compare timestamped pre-shipment photos to supplier intake photos. Damage in supplier photos but not yours indicates carrier liability. This settles disputes and enables claims.
From purchase order to cycle count, close the loop on inventory accuracy.
Requisitions arrive through different channels: email from managers, inventory alerts, maintenance work orders. They flow through ad-hoc approval chains with no audit trail. Different suppliers need different formats: email, portals, EDI, faxed forms. Duplicate orders happen because requisitions sit in approval queues for weeks. Three-way matching (PO-Receipt-Invoice) eats 20-30% of your accounts payable time resolving exceptions. Supplier relationships suffer because requisitions sit in approval queues. Materials arrive late, disrupting production schedules.
The IoTReady Operations Traceability Platform (OTP) centralizes the entire procure-to-pay workflow. All requisitions flow to a single queue: from department managers (standardized forms), inventory alerts (auto-generated when stock hits reorder), or maintenance work orders (auto-generated with material needs). Approval workflows are pre-configured with tiered thresholds: low-value items auto-approve if budget exists, mid-range needs manager approval, higher amounts need manager + department head, and top-tier needs CFO + documented competitive bids. Requisitions route automatically to the right approver with full context.
Supplier catalog management eliminates manual searching. The system recommends suppliers instantly: "Supplier A: 3-day lead. Supplier B: 7-day lead." PO creation is automated for standard items. Receipt matching is automated—goods arrive, warehouse staff scan barcodes, the system matches received quantity to PO expectations instantly. Three-way matching (PO-Receipt-Invoice) is automatic. Supplier scorecards track on-time delivery, lead time accuracy, quality acceptance rates, invoice accuracy, and responsiveness. Monthly reviews identify underperformers and reward preferred suppliers.
flowchart LR
A[Requisition] --> B[Approval<br/>Workflow]
B --> C{Approved?}
C -->|Yes| D[Select Supplier<br/>& Issue PO]
C -->|No| D
D --> E[Receipt, Invoice<br/>& Payment]
E --> F[Scorecard<br/>Update] Complete purchase order workflow from requisition through approval, supplier selection, receipt matching, invoice matching, and supplier performance tracking.
Automated workflows reduce approval cycles from 5-7 days to 1-2 days. Requisitions route automatically to appropriate approvers based on spend level, eliminating queue delays and approval bottlenecks.
Automated three-way matching eliminates 85-95% of exceptions. Organizations with 10K invoices reduce exceptions from 500 to 25-75, enabling faster payment processing and improved supplier relationships.
Supplier scorecards track delivery, lead time, quality, and accuracy metrics. Data-driven assessments enable consolidation decisions and identify top performers for strategic partnerships.
Automated GRN generation with scan-weigh-validate at receipt.
Your dock is a bottleneck. Trucks arrive; shipments pile up manually. Dallas shipments sit side-by-side but aren't consolidated—you ship two half-full trucks instead of one. That's 15-30% shipping budget wasted. Barcodes don't scan properly; shipments disappear into chaos on the dock floor. Outbound trucks wait, delaying carrier pickups. Misrouted shipments happen regularly.
Peak season is chaos. Dozens of inbound shipments arrive simultaneously. You pay double shifts just to move boxes. Customers get frustrated; carrier partners unhappy; you bleed money on expediting and re-routing.
With automatic consolidation, scan a shipment once. The system finds other Dallas-bound shipments and consolidates them into one truck. The system looks ahead—more shipments arriving in 2-3 hours? If waiting completes the truck, it holds shipments rather than sending half-full.
Your dock supervisor sees everything in real-time: occupied dock doors, truck allocations, readiness status. Missing something? System alerts immediately. Truck ready? System generates carrier manifest automatically and notifies the driver. No manual manifests, no delays.
flowchart LR
A[Scan Barcode] --> B[Find Destination]
B --> C[Match Shipments]
C --> D[Consolidate Truck]
D --> E[Generate Manifest]
E --> F[Notify Carrier] Real-time cross-dock allocation with automatic consolidation, manifest generation, and carrier coordination.
Automatic destination matching consolidates half-full trucks into full trucks. Instead of 2 half-full Dallas trucks, send 1 full. Cuts shipping 15-30% per shipment.
Hazmat shipments route only to DOT/IATA certified trucks. Fragile items to trucks with professional handling. Cold chains to refrigerated trucks. Auto-generates hazmat docs and handling instructions.
One screen shows occupied dock doors, allocations, remaining space. System alerts on arrivals, missing/delayed shipments, and which dock to check. Eliminates chaos during peak season.
Reduce physical inventory and physical verification time from days to hours.
Let's discuss how inventory management can transform your operations.