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AWS Re:cap 04: Controlled End-to-End Automation of Government Development with Cloud Agents

Speaker: Government data

Session: 04

Session
Summit Dev Lounge2026 Re:cap
01 Encode Architecture as Steering for AI Agents
Summit Dev Lounge2026 Re:cap
02 Agent Harness Is the Real Engineering Moat
Summit Dev Lounge2026 Re:cap
03 Ask Observability Data in Plain Language
Summit Dev Lounge2026 Re:cap
04 Serverless AR Game with Bedrock AgentCore
Summit Dev Lounge2026 Re:cap
05 Multi-Agent Quant Backtesting on AgentCore
Summit Dev Lounge2026 Re:cap
06 Blog to Slides in Three Minutes with Kiro
Summit Dev Lounge2026 Re:cap
AWS Community Day Hong Kong 2025 Re:cap
02 AWS Compliance with Terraform
AWS Community Day Hong Kong 2025 Re:cap
03 Beginner to Builder An AWeSome Cloud Journey
AWS Community Day Hong Kong 2025 Re:cap
04 Team-First Serverless Engineering with Laravel & Bref
AWS Community Day Hong Kong 2025 Re:cap
05 Event Opening - AWS Community Day Hong Kong 2025
AWS Community Day Hong Kong 2025 Re:cap
06 Agent-to-Agent: Building Interoperable AI on AWS
AWS Community Day Hong Kong 2025 Re:cap
07 Utilize another telemetry data for faster improvement with AI agent
AWS Community Day Hong Kong 2025 Re:cap
08 Graduating from Vibe Coding: Spec-Driven Development with Kiro
AWS Community Day Hong Kong 2025 Re:cap
09 Automated Testing using MCP & AI Agents
AWS Community Day Hong Kong 2025 Re:cap
10 Modernizing Telecom Security ML Powered Approach
AWS Community Day Hong Kong 2025 Re:cap
11 Rethinking GenAI Agent: RAG & MCP
AWS Community Day Hong Kong 2025 Re:cap
12 Disaster and Emergency Response with TAK and AWS
AWS Community Day Hong Kong 2025 Re:cap
13 Rethinking Serverless Application Workflows from a Testing Perspective
AWS Community Day Hong Kong 2025 Re:cap
14 Practical AWS FinOps for Cloud Success
AWS Community Day Hong Kong 2025 Re:cap
15 AI-Powered Global Pure-Alpha Macro Trades on AWS: Revolutionizing Risk-Adjusted Asset Returns
AWS Community Day Hong Kong 2025 Re:cap
FSI Recap
01 Modern Trade Lifecycle: Trading to Settlement
FSI Recap
02 Goldman Sachs: Fast Track your applications onto Cloud - AWS Re:cap Q1/2023
FSI Recap
03 Zurich Insurance Group: Building an Effective Log Management Solution on AWS
FSI Recap
04 FSI Meetup 2025 Q4 - Brex Database Disaster Recovery
FSI Recap
05 FSI Meetup 2025 Q4 - A Graviton Migration Success Story
FSI Recap
06 FSI Meetup 2025 Q4 - Stifel Modern Data Platform
FSI Recap
07 FSI Meetup 2025 Q4 - Financial Transaction Data Reconciler PayPal
FSI Recap
08 FSI Meetup 2025 Q4 - Scaling Resilience
FSI Recap
09 Maximizing AI Inference Cost Efficiency: Strategic Adoption of AWS GPU Instances
FSI Recap
10 Advanced Agentic AI Design Patterns
FSI Recap
11 Build New Modern Apps on AWS
FSI Recap
AWS re:Invent 2025
01 Coinbase re:Invent Recap (IND3312)
AWS re:Invent 2025
02 Building the Future Trading Platform Leveraging AI and AWS
AWS re:Invent 2025
03 Trading Innovation: Jefferies' AI Assistant on Amazon Bedrock (IND3315)
AWS re:Invent 2025
04 How FSI Revolutionized HFT Analytics with Agentic AI (GBL302)
AWS re:Invent 2025
05 Improving Distributed Systems with Amazon Time Sync Featuring Nasdaq
AWS re:Invent 2025
06 Amazon Aurora HA and DR Design Patterns for Global Resilience (DAT442)
AWS re:Invent 2025
07 Building Agentic AI: Amazon Nova Act and Strands Agents in Practice (DEV327)
AWS re:Invent 2025
08 Deep Dive into Amazon Aurora and Its Innovations (DAT441)
AWS re:Invent 2025
09 Deep dive on Amazon S3 (STG407)
AWS re:Invent 2025
10 Nasdaq: Build Resilient Infrastructure for Global Financial Services (HMC327)
AWS re:Invent 2025
11 What's New with AWS Lambda (CNS376)
AWS re:Invent 2025
12 Spec-Driven Development with Kiro (DEV314)
AWS re:Invent 2025
13 Amazon's finops: Cloud cost lessons from a global e-commerce giant (AMZ308)
AWS re:Invent 2025
14 Tick to trade latency trading platforms on aws
AWS re:Invent 2025
Government data
01 The AI Era: The Boundary Between Development and Design Is Disappearing
Government data
02 On-Device Multimodal AI and Smart-City Practice
Government data
03 Large-Model Capability Evaluation and a Method for Landing AI Projects
Government data
04 Controlled End-to-End Automation of Government Development with Cloud Agents
Government data
05 A New Software Ecosystem for the Agent Era, Seen Through Multi-Agent Systems
Government data
06 AI-Driven Macro Quantitative Research and Smart Governance
Government data
07 Authorized Operation of Public Data and Smart-Government Practice
Government data
08 Putting Data Assetization into Practice: Rights, Compliance, Engineering Governance, and Digital-Government Cases
Government data
09 AI for Mental-Health Public Welfare: Governance, Architecture, and Practice of a Trustworthy Platform
Government data
Amarathon 2025 Recap
01 A Developer’s Roadmap to Architecting for Agents
Donnie Prakoso
02 Amazon Bedrock Data Automation
Hafiz Syed Ashir Hassan
03 Multi-Agent on AgentCore
Tan Xin
04 Building Agentic AI Nova Act and Strands Agents in Practice
Haowen Huang
04 Accelerating Migration Projects with Kiro using Spec-Driven Development
Sanchit Dilip Jain
06 From Matching to Understanding: Personalized AI Search Practice Driven by AgentCore Memory
Liu Cao
07 Observe to Optimize – LLM Observability to AIOps Turning real-time insights into intelligent automation
Jimmy Soh
08 Deploying TEAM and Building the Best Engineering Team
Yuji Oshima
09 Five Hard Lessons from Five Years of So-Called Serverless Databases
Renato Losio
14 What if AI does my job How Q Developer CLI and Kiro have changed my daily routine
Miguel Angel Muñoz
16 Velocity with Vigilance: Security Essentials for Amazon Bedrock Agent Development
Brian Tarbox
26 Run OSS LLMs on a Single H100 Smarter, Cheaper, Faster
Adit Modi
28 A Modern Unified Metadata Architecture: New Approaches to Breaking Down Data Silos
Shaofeng Shi
29 Serverless MediaOps: Automating Video Workflows with AI on Amazon Web Services
Luis Valdivia
30 Architecting for Efficiency and Reliability with Performance Testing at Scale
Luis Guirigay
31 Connecting the World Through Open Source: Practical Journey of Technology, Community and Global Developer Relations
Richard Lin
33 Building Streaming Iceberg Tables for Real-Time Logistics Analytics
Fahad Shah
34 Accelerating Large-Scale Robot Strategy Training: An Automated Closed-Loop Architecture Based on Kiro, Trainium, and EKS
Junjie Tang
35 From Vibe to Viable with spec driven development
Ricardo Sueiras
36 Making Cloud Cost Analysis Smarter: Building FinOps Intelligent Agents with Strands and AgentCore
Xiaofei Li
37 Transform Conversational Agentic AIOps for K8s Using CNCF Kagent, K8sGPT, and Nova Sonic
Shaoyi Li

For government technology advisers, digital-government leads, data and security officers, digital-government architects, and large SOE technology decision-makers.


Public governance and value: Decision positioning

Answer why first, then talk about technology

This page focuses on "Public governance and value" at the decision positioning stage. The core content covers public service time, one-stop completion, frontline burden, and public rights. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are administrative discretion, appeals, accountability attribution, and continuity of essential services. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: wrap the agent in an event-driven workflow; the model handles only unstructured judgement; high-risk outcomes are subject to veto by the accountable owner. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Public governance and value: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Public governance and value" at the architecture implementation stage. The core content covers public service time, one-stop completion, frontline burden, and public rights. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are administrative discretion, appeals, accountability attribution, and continuity of essential services. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: wrap the agent in an event-driven workflow; the model handles only unstructured judgement; high-risk outcomes are subject to veto by the accountable owner. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Public governance and value: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Public governance and value" at the acceptance and operations stage. The core content covers public service time, one-stop completion, frontline burden, and public rights. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are administrative discretion, appeals, accountability attribution, and continuity of essential services. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: wrap the agent in an event-driven workflow; the model handles only unstructured judgement; high-risk outcomes are subject to veto by the accountable owner. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Public governance and value: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Public governance and value" at the take-home practice stage. The core content covers public service time, one-stop completion, frontline burden, and public rights. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are administrative discretion, appeals, accountability attribution, and continuity of essential services. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: wrap the agent in an event-driven workflow; the model handles only unstructured judgement; high-risk outcomes are subject to veto by the accountable owner. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Requirements and task engineering: Decision positioning

Answer why first, then talk about technology

This page focuses on "Requirements and task engineering" at the decision positioning stage. The core content covers requirement sources, affected services, prohibited scope, acceptance criteria, and accountable owners. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are vague descriptions, scope creep, incorrect assumptions, and inconsistent cross-department definitions. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: separate known facts, inferences, gaps, and recommendations, and decompose the plan into nodes with inputs, outputs, dependencies, and stop conditions. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Requirements and task engineering: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Requirements and task engineering" at the architecture implementation stage. The core content covers requirement sources, affected services, prohibited scope, acceptance criteria, and accountable owners. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are vague descriptions, scope creep, incorrect assumptions, and inconsistent cross-department definitions. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: separate known facts, inferences, gaps, and recommendations, and decompose the plan into nodes with inputs, outputs, dependencies, and stop conditions. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Requirements and task engineering: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Requirements and task engineering" at the acceptance and operations stage. The core content covers requirement sources, affected services, prohibited scope, acceptance criteria, and accountable owners. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are vague descriptions, scope creep, incorrect assumptions, and inconsistent cross-department definitions. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: separate known facts, inferences, gaps, and recommendations, and decompose the plan into nodes with inputs, outputs, dependencies, and stop conditions. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Requirements and task engineering: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Requirements and task engineering" at the take-home practice stage. The core content covers requirement sources, affected services, prohibited scope, acceptance criteria, and accountable owners. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are vague descriptions, scope creep, incorrect assumptions, and inconsistent cross-department definitions. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: separate known facts, inferences, gaps, and recommendations, and decompose the plan into nodes with inputs, outputs, dependencies, and stop conditions. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Code, testing, and release: Decision positioning

Answer why first, then talk about technology

This page focuses on "Code, testing, and release" at the decision positioning stage. The core content covers isolated branches, diff review, multi-layer testing, artefact signing, and progressive release. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are generated defects, unauthorised commits, supply-chain vulnerabilities, self-attested tests, and failed rollback. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: the agent must not push directly to the main branch; after compile, unit, contract, integration, and security scans pass, different roles approve a limited-traffic release. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Code, testing, and release: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Code, testing, and release" at the architecture implementation stage. The core content covers isolated branches, diff review, multi-layer testing, artefact signing, and progressive release. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are generated defects, unauthorised commits, supply-chain vulnerabilities, self-attested tests, and failed rollback. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: the agent must not push directly to the main branch; after compile, unit, contract, integration, and security scans pass, different roles approve a limited-traffic release. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Code, testing, and release: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Code, testing, and release" at the acceptance and operations stage. The core content covers isolated branches, diff review, multi-layer testing, artefact signing, and progressive release. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are generated defects, unauthorised commits, supply-chain vulnerabilities, self-attested tests, and failed rollback. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: the agent must not push directly to the main branch; after compile, unit, contract, integration, and security scans pass, different roles approve a limited-traffic release. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Code, testing, and release: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Code, testing, and release" at the take-home practice stage. The core content covers isolated branches, diff review, multi-layer testing, artefact signing, and progressive release. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are generated defects, unauthorised commits, supply-chain vulnerabilities, self-attested tests, and failed rollback. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: the agent must not push directly to the main branch; after compile, unit, contract, integration, and security scans pass, different roles approve a limited-traffic release. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Identity, permissions, and tools: Decision positioning

Answer why first, then talk about technology

This page focuses on "Identity, permissions, and tools" at the decision positioning stage. The core content covers user identity, agent identity, short-lived credentials, whitelisted tools, and risk classification. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are prompt injection, privilege expansion, arbitrary commands, long-lived secrets, and high-risk writes. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: classify read, write, deploy, delete, payment, and authorisation; a tool gateway validates parameters, task, data classification, and approval status. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Identity, permissions, and tools: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Identity, permissions, and tools" at the architecture implementation stage. The core content covers user identity, agent identity, short-lived credentials, whitelisted tools, and risk classification. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are prompt injection, privilege expansion, arbitrary commands, long-lived secrets, and high-risk writes. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: classify read, write, deploy, delete, payment, and authorisation; a tool gateway validates parameters, task, data classification, and approval status. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Identity, permissions, and tools: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Identity, permissions, and tools" at the acceptance and operations stage. The core content covers user identity, agent identity, short-lived credentials, whitelisted tools, and risk classification. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are prompt injection, privilege expansion, arbitrary commands, long-lived secrets, and high-risk writes. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: classify read, write, deploy, delete, payment, and authorisation; a tool gateway validates parameters, task, data classification, and approval status. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Identity, permissions, and tools: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Identity, permissions, and tools" at the take-home practice stage. The core content covers user identity, agent identity, short-lived credentials, whitelisted tools, and risk classification. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are prompt injection, privilege expansion, arbitrary commands, long-lived secrets, and high-risk writes. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: classify read, write, deploy, delete, payment, and authorisation; a tool gateway validates parameters, task, data classification, and approval status. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Data, knowledge, and memory: Decision positioning

Answer why first, then talk about technology

This page focuses on "Data, knowledge, and memory" at the decision positioning stage. The core content covers data classification, source, version, validity period, original permissions, and retention period. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are expired policy, unauthorised documents, cross-department mixing, sensitive leakage, and unbounded memory. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: govern task memory, preferences, and organisational knowledge separately; retrieval must return citations, and refuse with a stated gap when no basis is found. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Data, knowledge, and memory: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Data, knowledge, and memory" at the architecture implementation stage. The core content covers data classification, source, version, validity period, original permissions, and retention period. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are expired policy, unauthorised documents, cross-department mixing, sensitive leakage, and unbounded memory. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: govern task memory, preferences, and organisational knowledge separately; retrieval must return citations, and refuse with a stated gap when no basis is found. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Data, knowledge, and memory: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Data, knowledge, and memory" at the acceptance and operations stage. The core content covers data classification, source, version, validity period, original permissions, and retention period. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are expired policy, unauthorised documents, cross-department mixing, sensitive leakage, and unbounded memory. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: govern task memory, preferences, and organisational knowledge separately; retrieval must return citations, and refuse with a stated gap when no basis is found. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Data, knowledge, and memory: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Data, knowledge, and memory" at the take-home practice stage. The core content covers data classification, source, version, validity period, original permissions, and retention period. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are expired policy, unauthorised documents, cross-department mixing, sensitive leakage, and unbounded memory. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: govern task memory, preferences, and organisational knowledge separately; retrieval must return citations, and refuse with a stated gap when no basis is found. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Cloud-native, multi-cloud, and cost: Decision positioning

Answer why first, then talk about technology

This page focuses on "Cloud-native, multi-cloud, and cost" at the decision positioning stage. The core content covers model gateway, event orchestration, containers, security observability, data portability, and cost per completed service. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are vendor lock-in, service stacking, regional failure, hidden labour cost, and failed exit. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: compose capabilities such as Bedrock, EventBridge, Step Functions, Lambda, and ECS/EKS; retain open interfaces, export, and degradation paths. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Cloud-native, multi-cloud, and cost: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Cloud-native, multi-cloud, and cost" at the architecture implementation stage. The core content covers model gateway, event orchestration, containers, security observability, data portability, and cost per completed service. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are vendor lock-in, service stacking, regional failure, hidden labour cost, and failed exit. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: compose capabilities such as Bedrock, EventBridge, Step Functions, Lambda, and ECS/EKS; retain open interfaces, export, and degradation paths. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Cloud-native, multi-cloud, and cost: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Cloud-native, multi-cloud, and cost" at the acceptance and operations stage. The core content covers model gateway, event orchestration, containers, security observability, data portability, and cost per completed service. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are vendor lock-in, service stacking, regional failure, hidden labour cost, and failed exit. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: compose capabilities such as Bedrock, EventBridge, Step Functions, Lambda, and ECS/EKS; retain open interfaces, export, and degradation paths. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Cloud-native, multi-cloud, and cost: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Cloud-native, multi-cloud, and cost" at the take-home practice stage. The core content covers model gateway, event orchestration, containers, security observability, data portability, and cost per completed service. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are vendor lock-in, service stacking, regional failure, hidden labour cost, and failed exit. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: compose capabilities such as Bedrock, EventBridge, Step Functions, Lambda, and ECS/EKS; retain open interfaces, export, and degradation paths. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Reliability, observability, and incidents: Decision positioning

Answer why first, then talk about technology

This page focuses on "Reliability, observability, and incidents" at the decision positioning stage. The core content covers end-to-end SLO, trace identifiers, business telemetry, idempotency, RTO, RPO, and post-incident review. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are model unavailability, tool timeout, retry storms, log leakage, and absent approvers. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: chain technical, agent, and business telemetry; on failure, fall back to rules, search, or a human, preserve evidence, and rehearse recovery. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Reliability, observability, and incidents: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Reliability, observability, and incidents" at the architecture implementation stage. The core content covers end-to-end SLO, trace identifiers, business telemetry, idempotency, RTO, RPO, and post-incident review. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are model unavailability, tool timeout, retry storms, log leakage, and absent approvers. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: chain technical, agent, and business telemetry; on failure, fall back to rules, search, or a human, preserve evidence, and rehearse recovery. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Reliability, observability, and incidents: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Reliability, observability, and incidents" at the acceptance and operations stage. The core content covers end-to-end SLO, trace identifiers, business telemetry, idempotency, RTO, RPO, and post-incident review. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are model unavailability, tool timeout, retry storms, log leakage, and absent approvers. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: chain technical, agent, and business telemetry; on failure, fall back to rules, search, or a human, preserve evidence, and rehearse recovery. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Reliability, observability, and incidents: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Reliability, observability, and incidents" at the take-home practice stage. The core content covers end-to-end SLO, trace identifiers, business telemetry, idempotency, RTO, RPO, and post-incident review. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are model unavailability, tool timeout, retry storms, log leakage, and absent approvers. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: chain technical, agent, and business telemetry; on failure, fall back to rules, search, or a human, preserve evidence, and rehearse recovery. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Procurement, acceptance, and accountability: Decision positioning

Answer why first, then talk about technology

This page focuses on "Procurement, acceptance, and accountability" at the decision positioning stage. The core content covers outcome-based specifications, data policy, SLA, security testing, a responsibility matrix, and exit assistance. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are judging by demonstration only, averages that mask high risk, opaque subcontracting, and incapacity after contract termination. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: accept correctness, safety, fairness, performance, reliability, cost, and governance together; bind payment to verifiable milestones and exit drills. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Procurement, acceptance, and accountability: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Procurement, acceptance, and accountability" at the architecture implementation stage. The core content covers outcome-based specifications, data policy, SLA, security testing, a responsibility matrix, and exit assistance. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are judging by demonstration only, averages that mask high risk, opaque subcontracting, and incapacity after contract termination. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: accept correctness, safety, fairness, performance, reliability, cost, and governance together; bind payment to verifiable milestones and exit drills. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Procurement, acceptance, and accountability: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Procurement, acceptance, and accountability" at the acceptance and operations stage. The core content covers outcome-based specifications, data policy, SLA, security testing, a responsibility matrix, and exit assistance. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are judging by demonstration only, averages that mask high risk, opaque subcontracting, and incapacity after contract termination. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: accept correctness, safety, fairness, performance, reliability, cost, and governance together; bind payment to verifiable milestones and exit drills. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Procurement, acceptance, and accountability: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Procurement, acceptance, and accountability" at the take-home practice stage. The core content covers outcome-based specifications, data policy, SLA, security testing, a responsibility matrix, and exit assistance. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are judging by demonstration only, averages that mask high risk, opaque subcontracting, and incapacity after contract termination. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: accept correctness, safety, fairness, performance, reliability, cost, and governance together; bind payment to verifiable milestones and exit drills. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Hong Kong digital government success cases: Decision positioning

Answer why first, then talk about technology

This page focuses on "Hong Kong digital government success cases" at the decision positioning stage. The core content covers smart city governance, iAM Smart, CorpID, consent-based data exchange, an AI+ public-service catalogue, and a cross-department shared platform. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are identity authorisation, data purpose, cross-border flow, multi-vendor fragmentation, and publicly perceptible outcomes. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: use shared identity, a data catalogue, an exchange gateway, shared cloud, and security standards as the agent foundation, and verify by service penetration and usage outcomes. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Hong Kong digital government success cases: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Hong Kong digital government success cases" at the architecture implementation stage. The core content covers smart city governance, iAM Smart, CorpID, consent-based data exchange, an AI+ public-service catalogue, and a cross-department shared platform. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are identity authorisation, data purpose, cross-border flow, multi-vendor fragmentation, and publicly perceptible outcomes. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: use shared identity, a data catalogue, an exchange gateway, shared cloud, and security standards as the agent foundation, and verify by service penetration and usage outcomes. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Hong Kong digital government success cases: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Hong Kong digital government success cases" at the acceptance and operations stage. The core content covers smart city governance, iAM Smart, CorpID, consent-based data exchange, an AI+ public-service catalogue, and a cross-department shared platform. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are identity authorisation, data purpose, cross-border flow, multi-vendor fragmentation, and publicly perceptible outcomes. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: use shared identity, a data catalogue, an exchange gateway, shared cloud, and security standards as the agent foundation, and verify by service penetration and usage outcomes. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Hong Kong digital government success cases: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Hong Kong digital government success cases" at the take-home practice stage. The core content covers smart city governance, iAM Smart, CorpID, consent-based data exchange, an AI+ public-service catalogue, and a cross-department shared platform. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are identity authorisation, data purpose, cross-border flow, multi-vendor fragmentation, and publicly perceptible outcomes. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: use shared identity, a data catalogue, an exchange gateway, shared cloud, and security standards as the agent foundation, and verify by service penetration and usage outcomes. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Five-year plan and regional innovation: Decision positioning

Answer why first, then talk about technology

This page focuses on "Five-year plan and regional innovation" at the decision positioning stage. The core content covers Northern Metropolis, Loop cooperation, AI+, smart healthcare, smart mobility, green transition, and the talent ecosystem. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are policy still under consultation, cross-border rules, industry-academia-research gaps, data sensitivity, and technology projects detached from livelihoods. The accountable executive must confirm public value, unacceptable consequences, the accountable owner, data legality, and whether the process can be improved before using a model. If the problem cannot be measured, an agent should not be the answer. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: first convert planning directions into service outcomes, process changes, data needs, annual milestones, and accountable departments, then choose models and platforms. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

At review, require a one-page decision card listing the baseline, target, affected groups, human veto, appeal, degradation, and exit. Any blank field means the project is not yet ready to be initiated. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Five-year plan and regional innovation: Architecture implementation

Turn principles into system boundaries, then talk about technology

This page focuses on "Five-year plan and regional innovation" at the architecture implementation stage. The core content covers Northern Metropolis, Loop cooperation, AI+, smart healthcare, smart mobility, green transition, and the talent ecosystem. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are policy still under consultation, cross-border rules, industry-academia-research gaps, data sensitivity, and technology projects detached from livelihoods. Draw the lines of responsibility across events, data, identity, models, agents, tools, workflows, humans, and observability. A deterministic engine controls sequence, retry, timeout, compensation, and approval. The model must not lower policy on its own. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: first convert planning directions into service outcomes, process changes, data needs, annual milestones, and accountable departments, then choose models and platforms. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Walk through the three most recent real tasks step by step. For every read, write, and publish, specify permission, input structure, stop conditions, and evidence location. Simulate injection, missing data, and tool failure. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Five-year plan and regional innovation: Acceptance and operations

Prove sustainability with evidence, then talk about technology

This page focuses on "Five-year plan and regional innovation" at the acceptance and operations stage. The core content covers Northern Metropolis, Loop cooperation, AI+, smart healthcare, smart mobility, green transition, and the talent ecosystem. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are policy still under consultation, cross-border rules, industry-academia-research gaps, data sensitivity, and technology projects detached from livelihoods. Establish normal, boundary, adversarial, historical, and surge tests. Preserve versions of the model, prompts, knowledge, tools, and human decisions. Account time, quality, cost, and intervention against successful tasks. Do not treat call volume as a substitute for benefit. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: first convert planning directions into service outcomes, process changes, data needs, annual milestones, and accountable departments, then choose models and platforms. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

Go live with a limited scope and feature flags. Set stop thresholds for error, latency, cost, leakage, and complaints. Review failure samples weekly. Review jointly each month across business, technology, security, and finance. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.


Five-year plan and regional innovation: Take-home practice

Take the method back to the organisation, then talk about technology

This page focuses on "Five-year plan and regional innovation" at the take-home practice stage. The core content covers Northern Metropolis, Loop cooperation, AI+, smart healthcare, smart mobility, green transition, and the talent ecosystem. These are not supplementary documents. They are preconditions for whether an agent may enter a production system. The team must convert an abstract vision into concrete services, data flows, permissions, accountability, and acceptance. Fluency of model answers, demonstration speed, or vendor brand must not be treated as pass criteria.

Evidence this domain must show

The main risks are policy still under consultation, cross-border rules, industry-academia-research gaps, data sensitivity, and technology projects detached from livelihoods. Start with high-frequency, low-risk, reversible work. Establish a baseline and evidence in read-only or draft mode, then accept controlled tools, and only then consider high-impact actions. Every exception must have an approver, a time limit, and a remedy. Reviewers should require that raw inputs, citation sources, versions, tool calls, human decisions, costs, and exceptions are all traceable. If any step can be explained only orally, the control has not truly landed.

Derive controls from risk

The engineering main line is: first convert planning directions into service outcomes, process changes, data needs, annual milestones, and accountable departments, then choose models and platforms. Every control must name an owner, an inspection frequency, an evidence location, and a failure response. A control without an owner does not exist. A rollback that has never been rehearsed is not a rollback. An exception without a time limit eventually becomes a permanent back door.

Field operation and acceptance statement

After photographing this page, ask immediately: who is accountable, where the data comes from, which versions of the model and prompt are in use, what the tool did, what the approval was based on, how failure is stopped, how rollback works, and whether service can continue if the vendor leaves. Write the requirements of this page into requirements, tests, approvals, and operations manuals, and use the same data set for normal, boundary, and failure cases. Success is not that the agent always completes the task. It is that when the agent is uncertain, exceeds authority, or a service fails, it can stop, explain, notify the accountable owner, and fall back safely to a human.