(01)How does the AI learn from our data?
Our AI analyzes your historical data to build custom models specific to your business. It learns patterns, preferences, and behaviors unique to your operations—continuously improving accuracy as you use the system. Your data never trains shared models.
(02)Can we start without AI features and add them later?
Absolutely. You can begin with core functionality and enable AI features gradually as you become comfortable. AI capabilities are modular—turn them on when ready, no migration required.
(03)What happens when the AI makes a mistake?
AI suggestions are always reviewable—you maintain final control. The system includes feedback mechanisms so it learns from corrections. Confidence thresholds let you auto-approve high-certainty actions while flagging edge cases for human review.
(04)How do we calculate optimal stock levels and reorder points?
Optimal inventory requires balancing service levels against carrying costs: (1) Safety stock - buffer for demand variability and lead time uncertainty. Formula: Safety Stock = Z-score × √(Lead Time × Demand Variance). (2) Reorder point - trigger level for new orders. Formula: ROP = Average Daily Demand × Lead Time + Safety Stock. (3) Economic Order Quantity (EOQ) - optimal order size minimizing total costs. Modern systems calculate these automatically using historical data and adjust dynamically. Key inputs: service level targets (typically 95-99%), supplier lead times, demand patterns, and carrying cost percentage (your actual annual rate as a share of item value). We configure your system with appropriate parameters and refine based on actual performance.
(05)How do we manage inventory across multiple locations?
Multi-location management requires a unified approach: (1) Central visibility - single dashboard showing stock levels across all warehouses, stores, and in-transit inventory. (2) Location-specific parameters - different safety stocks and reorder points based on local demand patterns. (3) Inter-location transfers - automated transfer suggestions when one location has excess and another has shortage. (4) Demand allocation - intelligent routing of orders to optimal fulfillment location based on stock availability, shipping cost, and delivery speed. (5) Inventory balancing - periodic redistribution to maintain target levels. Technical requirements: real-time sync between locations, robust master data management, and clear ownership rules for shared inventory.
(06)How does barcode/RFID scanning improve accuracy?
Scanning technology dramatically improves inventory accuracy: (1) Receiving - scan items as they arrive to update stock instantly and validate against purchase orders. (2) Put-away - scan location barcodes to record exactly where items are stored. (3) Picking - scan items during order fulfillment to prevent errors (wrong item, wrong quantity). (4) Cycle counting - regular partial counts to maintain accuracy without full physical inventory. (5) RFID advantages - bulk scanning (200+ items/second), no line-of-sight required, automatic tracking as items move between zones. Implementation: mobile scanners or smartphone apps for flexibility, zone-based RFID readers for high-volume operations. For context: a pilot study by Auburn University's RFID Lab and GS1 US (2018) puts in-store inventory accuracy at around 63% without RFID and around 95% with RFID.
Have more questions? Contact us for personal consultation.