Core Technology and the Device–Edge–Cloud–Intelligence Four-Layer AI Architecture

Zhisuo Zhikong has built the four-layer Device–Edge–Cloud–Intelligence AI architecture. From loom sensors to cloud-based LLMs, data at every layer fuels the intelligence of the next. The four layers work together to form a complete closed loop: data acquisition → edge preprocessing → cloud accumulation and analysis → AI decision output.

From Loom Sensors to Cloud LLMs · Four-Layer Capability Overview

Data at every layer fuels the intelligence of the next. All performance figures below are estimates for typical scenarios and are ultimately subject to on-site POC validation.

⚡
Device Layer · Zhixin Edge AI Engine
Putting AI on the loom, with 0.3 s warp breakage response
≤0.3msDetection Response Latency
≥99%Warp Breakage Detection Accuracy
<1.5%False alarm rate
STM32F103Main controller chip
  • 650 nm laser detection; non-contact, with no impact on warp yarn movement
  • Random Forest edge inference with <1 s response
  • Five-stage winding-displacement motion detection principle
  • Next-generation roadmap: F407 + CNN (Convolutional Neural Network)
Core product:Drop-Wire-Free Light-Beam Warp Breakage Detection Device
↓ Real-time data acquisition
📡
Edge Layer · Zhisuo Edge Computing Gateway
The data relay station on the shop floor — no data lost even when the network goes down
200+Devices per gateway
433MHzLoRa Wireless Communication
4GUplink communication
0Data loss (offline caching and resumption)
  • LoRa 433 MHz + 4G dual-communication redundancy
  • Edge data preprocessing and cleansing to reduce cloud load
  • Local lightweight AI inference for real-time alarms without cloud dependence
  • Store-and-forward: data is cached locally and auto-synced after recovery
Core product:Zhisuo Edge Computing Gateway
↓ Edge preprocessing
☁️
Cloud Layer · 天工 (Tiangong) AI Smart Manufacturing Hub
The brain of the factory — run production by voice
10Languages supported (AI voice interaction)
4 industriesMES coverage (cotton spinning / weaving / printing and dyeing / garment / home textiles / plastic woven packaging)
100%Automated reporting
Full chainQuality traceability
  • 天工 (Tiangong) voice interaction in MES — one spoken sentence produces a report
  • AI intelligent production scheduling to optimize capacity allocation
  • Quality early warning with automatic defective-product traceability
  • LoomOS AI supply–demand matching + capacity forecasting + price index
Core product:Zhisuo Textile MESLoomOS Industrial Internet Platform
↓ Cloud accumulation and analysis
🧠
Intelligence Layer · 天机 (Tianji) TexOracle Forecasting Engine
The executive's decision aide — know raw material price increases ahead of time
50+Category coverage
1 hourUpdate frequency
87%+Forecast confidence
GNNIndustry chain propagation GNN
  • LLM Quantitative Computing + Multi-Factor AI Models
  • Value Chain Propagation GNN (Graph Neural Network)
  • NLP Event-Driven Analysis (News / Policy / Exchange Rates)
  • A self-iterating data flywheel that gets more accurate the more it is used
Core product:天机 (Tianji) TexOracle Price Forecasting Engine
⟲ AI decision output feeding back (closed loop)
Data Flywheel
The more it runs, the sharper it gets
Installed equipment Edge AI nodes Real-time production data MES data quality LoomOS industry data TexOracle forecast accuracy Feedback into production decisions

Data Flywheel · A Self-Reinforcing Technical Loop

As more equipment is installed, edge AI nodes multiply and real-time production data keeps accumulating, lifting MES data quality.

LoomOS industry data keeps growing and TexOracle forecast accuracy keeps improving; predictions feed back into production decisions, amplifying customer value.

More installations → more data → better models → smarter decisions → higher customer value → more installations: a self-reinforcing growth loop.

Installed equipmentEdge AI nodesReal-time production dataMES data qualityLoomOS industry dataTexOracle forecast accuracyFeedback into production decisions

Traditional Approach / Common Competitors / Zhisuo Solution · 10-Dimension Capability Comparison

The comparison below is based on Zhisuo Zhikong's internal simulation validation and joint estimates from pilot deployments at typical customers. Each difference is an objective statement of parameter differences; no absolute claims or disparaging terms are used. Actual selection should be based on customer operating conditions and on-site POC.

Capability dimension (10 in total)
Traditional approach (drop wires + paper ledgers)
Common competitors (single device + limited networking)
Zhisuo solution (four coordinated layers: inspection / networking / platform / traceability)
① Inspection method
Mechanical contact drop wires, one per warp yarn
Single-point through-beam / reflective sensors with mechanical clips or contact aids
Non-contact light-beam inspection: zero mechanical contact, zero drop-wire wear
② Deployment and retrofit cost
Relatively low purchase cost, but ongoing costs for drop-wire replacement and manual inspection persist
Requires additional cabling work and distribution cabinet modification; some solutions need a machine shutdown window
LoRa wireless deployment with relatively little cabling work; sensors support both clip and magnetic mounting; retrofit costs depend on workshop size
③ Loom compatibility
Tied to drop-wire specifications; special yarns / non-standard warp beams require custom wires
Often tied to specific machine models / distribution cabinet protocols; cross-model compatibility varies by solution
Compatible with mainstream water-jet and air-jet looms; PLC data integration is an optional extension, not a mandatory full PLC integration requirement
④ Single-event recognition latency
Manual patrol response; latency varies with operator workload and shift fatigue
Mostly millisecond-level single-device response; backend event latency after networking depends on gateway stability
Single-event recognition latency of approximately ≤0.3 ms in typical pilots (typical-scenario estimate; actual results vary with operating conditions and on-site obstruction)
⑤ Warp breakage event data accumulation
Mainly paper records; limited dimensions for data review
Events mostly stored locally on individual machines; cross-loom aggregation varies by vendor
Structured accumulation across three dimensions — loom + warp beam + timestamp; warp breakage events are auto-uploaded to MES and can be filtered by team, shift, warp beam and yarn grade
⑥ Shop-floor networking
No networking; mainly manual machine watching
Mostly wired or Wi-Fi; stability in high-humidity / high-EMI workshops depends on site conditions
LoRa wireless + gateway edge caching; in a typical steel-structure workshop, one gateway can cover hundreds of loom nodes (coverage varies with on-site structure, ceiling height and other factors)
⑦ MES / ERP integration capability
Requires additional manual entry or secondary development to connect
Integration capability varies widely by vendor product portfolio, with custom development fees
Ships with textile MES and PP FIBC MES on the same technology stack as the detection device; externally supports typical HTTP callbacks, CSV intermediate tables and other integration modes. Interface documentation and integration testing follow the actual project schedule.
⑧ Multilingual and overseas capabilities
Multilingual capabilities largely absent
Mostly English interfaces; minority-language coverage varies by vendor
10 languages in one shared JSON dictionary; deployment models for overseas textile capacity markets can be selected based on actual customer needs
⑨ Hardware outgoing traceability capability
Mainly paper certificates of conformity / warranty cards
SN labels exist, but statuses are mostly maintained manually
The Zhisuo Station-Test workstation inspection system permanently locks the five states written to the SN; one QR code traces the full chain — outgoing inspection, shipment, on-site installation and maintenance
⑩ Deployment and maintenance
Relies on manual patrols by shop-floor inspectors and maintenance workers
Mostly on-site vendor troubleshooting; remote capability depends on network conditions
The gateway supports remote logs, heartbeats and version distribution; the maintenance-free interval is approximately 12 months (typical-scenario estimate; actual results vary with on-site temperature, humidity, dust concentration and other environmental conditions)

* The 10 comparison conclusions above are statements of parameter differences based on Zhisuo Zhikong's internal simulation validation and joint estimates from typical customer pilots; they do not constitute disparaging conclusions about competitors. Actual capabilities are subject to on-site POC validation, formal contract terms and acceptance criteria.

IP and Qualification Portfolio Across the Four Technology Layers

Across optical detection device structures, real-time monitoring methods, LoRa networking data acquisition, MES visualization dashboards, edge computing and other directions, the company has filed a cumulative 10 invention patent applications (all under substantive examination); 9 utility models (applications accepted); 1 software copyright registered (No. 2026SR1016542), with 2 more under review.A Jiangsu Province enterprise certified for IP management system certification (GB/T 29490-2013), and a recognized technology-based SME registered in the national database.Final qualifications and patent status are subject to the official documents of the China National Intellectual Property Administration and competent authorities at all levels.