Stock LLM Wiki

報告_OCP2026_鴻海鴻佰_GW級AI基礎設施交付_20261015

PDF 原檔:報告_OCP2026_鴻海鴻佰_GW級AI基礎設施交付_20261015_original.pdf

講者公開簡報(OCP 官方 Recorded Content 頁提供下載)。文字以 PyMuPDF 逐頁抽取,### p<n> 為頁碼;圖表內容見原檔。

圖片清單(已驗證 2026-10-19)

檔名 頁 分類 親眼所見內容
報告_OCP2026_鴻海鴻佰_GW級AI基礎設施交付_20261015_p2.png p2 真資料圖 CSP 挑戰三欄:前五大 CSP 每年新增 AI 算力 GW 數(2023 為 3、2024 為 7、2025 為 8、2026E 為 18、2027E 為 26,CAGR 75%);Vera Rubin NVL72 含 130 萬個零件、1,300 顆晶片;世代量產起點 Ampere 2020.11、Hopper 2023.3、Blackwell 2025.6、Rubin 2026.9、Rubin Ultra 2027(間隔 28/27/15 個月)
報告_OCP2026_鴻海鴻佰_GW級AI基礎設施交付_20261015_p4.png p4 真資料圖 GB 對 VR 自動化指標:自動化覆蓋率 94% 對 56%、NPI 前置時間 3.5 個月對 4.5 個月、組裝 FPY 97% 對 91%、測試 FPY 80% 對 39%;旁附 LGA/SOCAMM 組裝線、龍門測試、人形機器人取放與精密組裝照片
報告_OCP2026_鴻海鴻佰_GW級AI基礎設施交付_20261015_p5.png p5 文字卡 VR 自動化三項關鍵設計:DFM 轉 DFA、無纜化架構(midplane+板對板連接器)、無軟管液冷(機櫃內建 inner-manifold,主冷卻迴路無軟管)
報告_OCP2026_鴻海鴻佰_GW級AI基礎設施交付_20261015_p7.png p7 真資料圖 VR L10 自動化測試:自動化覆蓋 100%(提升 70 個百分點)、測試 FPY 80%(提升 41%)、單台測試 12 小時(減 3 小時)、每線每分鐘 1 托盤(提升 50%);全球測試位 1000+、總容量 100+ MW,分布美洲(美國、墨西哥)與亞洲(台灣);四項測試系統技術(中央控制、AI 故障分析、日誌解析、自動派工)
報告_OCP2026_鴻海鴻佰_GW級AI基礎設施交付_20261015_p8.png p8 真資料圖 案例研究(前三大 CSP 的 VR 專案)六道關卡時程:需求 2 天、DFM 7 天、設計審查 5 天、驗收 20 天、量產放行 5 天、全球複製 15 週;結果 NPI 開發縮短 17 週、爬坡縮短 1 週
報告_OCP2026_鴻海鴻佰_GW級AI基礎設施交付_20261015_p9.png p9 真資料圖 下一階段彈性自動化:Type A(XY 龍門,模組尺寸)與 Type B(多軸機器人,托盤尺寸)可換加工叢集;2 台機器完成 7 道製程、換線 2 小時、NPI 機台前置縮至 10 週、省空間 40%、設備數量減 55%

原始內容

p1

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. HON HAI TECHNOLOGY GROUP From Chips to Compute: Delivering AI Infra at GW Speed Foxconn Full-Stack Automated System for Vera Rubin Liu Zongchang, CDO of Foxconn Industrial Internet Co. Oct. 12, 2026

p2

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. 1 / Challenge for CSPs: GW-Scale Compute Delivery CSP Compute Capacity Scaling at GW-Speed Delivery speed & reliability become critical CSPs’ core challenge shifted from securing chips to rapidly converting them into compute capacity. Foxconn’s answer is Full-stack Automation. System Complexity Growing Dramatically Product Iteration Accelerating 3 7 8 18 26 2023 2024 2025 2026E 2027E Top 5 CSPs build new AI computing power / GW * 75% CARG Vera Rubin NVL72 Integrates 1.3 million components, 1,300 chips High component density creates integration challenges Iteration accelerating demands manufacturing agility Ramp Start Time Generation Ampere 2020.11 Hooper 2023.3 Blackwell 2025.6 Rubin 2026.9 Rubin Ultra 2027 28-month interval 27-month interval 15-month interval shorter interval Resource: TrendForce 9

p3

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. 2 / Foxconn Automation Strategies 1 D E SI GN FOR A U T OM A T I ON Engage Earlier in Customers' Roadmap Optimize Manufacturability Before Design Freeze 2 OM N I V E RSE + D I GI T A L T W I N Validate Virtually Before We Build Level 3 AI Copilot Oct 2026 · Level 4 Orchestration Dec 2026 3 M OD U LA R, FLE X I BLE & H U M A N OI D Flexible by Design. Scalable to Any Site Isaac Lab + GR00T humanoids already in production Future Automation Model Sequential Development -> Concurrent Engineering Build to Validate -> Virtual Validation Dedicated Equipment -> Reconfigurable Systems Local Deployment -> Global Orchestration 9

p4

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. 3 / Foxconn Automation Evolution, from GB to VR Automation Coverage 94% vs. 56% ↑38% VR vs. GB Gantry Testing NVIDIA X Foxconn SOCAMM & LGA Humanoid Pick & Place Humanoid Precision Assembly Omniverse + Digital Twin NPI Lead Time 3.5 Months vs. 4.5 Months ↓22% FPY - Testing 80% vs. 39% ↑41% FPY - Assembly 97% vs. 91% ↑6% 9

p5

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. 4 / Key Enabling Designs for VR Automation Design Philosophy:DFM → DFA Eliminates late-stage design changes. Enables High-yield Automated Production. Design for manufacturing to automation. Optimize assembly sequence, tolerance. Reduce late changes. 1 Cableless Architecture Removes labor-intensive cable routing. Enables fully automated board assembly. Replace internal cable harnesses. Midplane for high-density interconnection. Standardized interfaces for alignment. 2 Board-to-Board Connectors Midplane Hose-Free Liquid Cooling Reduces leak points. Speeds up L6/L10 assembly & test cycle. Integrated inner-manifold into rack. No flexible hoses in main cooling loop. Leak-free design for automated mating. 3 Inner-manifold Design for Automation = Higher Yield, Faster Ramp, and Consistent Quality at GW Scale. 9

p6

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. 5 / Key Enabling Technologies for VR Automation Grace Blackwell Vera Rubin +13% UPH Fully Automated Operation Achieved Al AOl for Higher judgement Efficiency KEY BREAKTHROUGHS 33% Improvement in TIM Picking Efficiency Cycle time reduced from 1.2s to 0.8s Higher Throughput Dual-slide station design increases throughput while reducing equipment footprint End-to-End Automation MDT-to-hole-punching process fully connected and automated Lean Equipment Integration Fast inspection + tray separation integrated to reduce equipment and manual operations Automated Material Flow Automated logistics system for efficientinter- station transfer Al Quality Inspection Deep-learning AOI to reduce false positives/negatives and improve quality control 9

p7

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. 6 / Automated Test & Validation for VR L10 Global Test Bay Allocation & Capacity Americas America | Mexico Asia Taiwan Key Enabling Technologies Test Central Control Sys. Real-time station-level MTF status monitoring, multi-site test data synchronization, delivering full test chain visibility and complete log traceability. AI-Powered FA Expert Sys. LLM-driven failure analysis engine built on fault knowledge; automatically identifies failure symptoms, outputs step- by-step repair and routing decisions. Intelligent Log Parser Compatible with multi-format device logs; performs automatic failure classification, matches historical repair cases, and pinpoints root-cause components. Auto-Dispatching Logic Paired with AGV automated material flow; enables intelligent Pass/Fail/NG triage and direct routing to quick repair / retry stations. Quantified Performance 1000+ Test Bays 100+ MW total Capacity 100 % Automation Coverage for L10 ↑ 70 pp 80 % FPY - testing ↑ 41 % 12 hrs Per Unit Test Time ↓ 3 hrs 1 tray / min / line Capacity ↑50 % 9

p8

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. 7 / 9 Case Study: our Solution for a Top-3 CSP Customer Challenge Fast VR platform transition, dedicated design High component count and liquid cooling complexity Need for fast NPI, stable yield, and global rollout A structured NPI-to-global-replication approach for fast, high-quality ramp. Gate 1 Requirement Aligned CSP performance, capacity, design, and ramp targets 2 days Gate 2 DFM Output Translated customer need into manufacturable assembly sequence 7 days Gate 3 Design Review Frozen BOM, process specification, and risk controls 5 days Gate 4 Buy-off Completed FAT/SAT and safety validation 20 days Gate 5 MP Release Launched controlled ramp with standardized issue resolution 5 days Gate 6 Global Replication Rolled out duplicated Line, replicated golden process 15 weeks PLM Traceability We control every change Design version control, ECR/ECN management Connected engineering, procurement, production data Design → MFS → Build → Acceptance → Performance Closed-loop corrective action Lifecycle Quality Assurance Shorter NPI Development L/T Foxconn one-stop solution reduces non-recurring engineering and rework, enabling faster customer’s Vera Rubin platform introduction. 17 weeks Faster Ramp-Up Integrated DFM, automated test, and early issue resolution support faster volume ramp from NPI to mass production. 1 week Consistent Quality in Global Replication Golden process replication and lifecycle quality control help ensure uniform output quality across global manufacturing sites.

p9

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. 2 machines for 7 processes Next Phase: Flexible Automation A Balance between Efficiency & Flexibility Our Answer: Type A & B, changeable Processing Clusters Type A (XY-Gantry) for Module-Size Type B (Multi-Axis Robot) for Tray-Size ① Assembly Module ⑤ Pressing Module ⑥ Flipping Module ② Precision Mounting ③ Precision Screwing ④ Precision Dispensing ⑦ AOI 1 Long NPI cycle for new platform introduction High cost & long downtime for line changeover Dedicated line cannot reuse for next-gen products Current Pain Points 2 Reusable Automation via One Platform, Cluster Swap & Type A/B Combination. Quick NPI machine L/T to 10 weeks Changeover in 2 hour Performance: “Quick 4 Slim” 3 Flexible 2 machines for 7 processes 1 line for multiple products Slim 40% Space saving Equip Qty by 55% 8 / 9

p10

© 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved. Future Factory: Paradigm to Autonomous Operation 9 / 9 Traditional: Low-Mix, High-Volume Dedicated lines for scale efficiency Rigid changeover, high customization cost Future: High-Mix, Low-Volume Customer-centric mass customization Fast response to multi-SKU batches Requires flexibility & dynamic scheduling Paradigm Shift Digital Twin Plan & Validate • Sim2Real virtual validation • Virtual factory & process optimization • Cuts NPI trial cost 1 Flexible Automation Execute & Reconfigure • Fast line reconfiguration • Physical base for multi production • Decreases NPI L/T 2 Humanoid Robot Assist & Operate • Universal workshop, max flexibility • Load / unload the materials • "All-around worker" on line 3 Factory AI Agent Decide & Optimize • Orchestrating & decision-making • Scheduling & predictive maintenance • Dynamic resource optimization 4 Digital Twin validates plan → Flexible Automation provides physical base → Humanoid Robots execute flexible tasks → Factory AI Agent optimizes and feeds back

p11

Share Collaborate Thrive © 2026 Hon Hai Precision Industry Co., Ltd. All rights reserved.