发展展望


1. 判断方法与事实口径

本章对未来做出判断,因此严格执行三条口径纪律:

  1. 事实与判断分离:凡标注来源的为事实陈述;本章的推论统一以“判断:”开头。
  2. 三段式趋势结构:每条技术趋势按“驱动力 / 当前证据 / 不确定性”三段呈现,不确定性部分如实说明该趋势可能不成立或形态偏离的条件。
  • 来源等级:A 级为厂商或机构官方一手陈述,可直接引用;B/C 级数字一律标 ;未获权威信息的事项如实声明,不做推测性填补。

  • 2. 技术趋势

    2.1. 上下文工程自动化

    驱动力。上下文工程已成为智能体系统的第一工程杠杆,但它目前仍以手工为主:上下文窗口内的信息退化、长任务中的状态管理、多源信息的优先级排序,都依赖工程师的手工设计。三类压力推动其自动化:其一,长时运行任务(单任务常超过 6 小时,OpenAI 官方实验口径)使手工维护上下文不可持续;其二,上下文退化对模型性能的影响已被多项实验证实(相关量化数字标 [待核实]);其三,token 成本使“全量注入”在经济上不可行。

    当前证据。自动化机制已在头部产品中落地(A 级):Anthropic 官方给出四策略——compaction(压缩)、note-taking(笔记)、memory tool(记忆工具)、sub-agent(子智能体派发,子智能体消耗数万 token 仅回传 1,000~2,000 tokens 摘要);Agent Skills 的三级渐进式披露机制把“何时加载什么”变成声明式规则;Lance Martin 的四支柱(Write / Select / Compress / Isolate)与 Anthropic 四策略已形成两套可互译的分类法,说明该层正在收敛为标准术语体系。MCP 规范 2026-07-28 版的无状态化与缓存复用机制为上下文管理提供了协议层支撑。

    不确定性。其一,模型有效上下文的延长会吸收一部分压缩与裁剪需求(Anthropic 官方自陈正在“随模型能力提升动态裁撤冗余 Harness 设计”),自动化的边界会随模型能力漂移;其二,自动压缩可能丢失任务关键信息,其可靠性本身需要评估层兜底——上下文工程自动化与评估驱动开发(见 2.2 节)是相互依赖的趋势。

    2.2. 评估驱动开发

    驱动力。采用率与信任度之间的巨大缺口(详见 4.1 节)使“可预期性”成为智能体系统的核心购买理由,而可预期性只能由评估层交付。同时,企业侧效能数据提示速度红利已近天花板:DORA 2025 显示 AI 采用与软件交付吞吐正相关,但与交付稳定性负相关([待核实])——当速度红利被吃尽,工程重点必然转向质量与稳定性,即评估。

    当前证据。评估已从外部榜单内化为系统组件(A 级):OpenAI 在 Agents SDK 中内置 tracing;Anthropic 在长时运行 Harness 中内置独立 Evaluator 与硬阈值评分;Google ADK 内置 AgentEvaluator.evaluate(),可对最终响应与逐步轨迹双重评分。基准侧,SWE-bench 与 Terminal-Bench 确立了程序化判据的标准(“要么自动化测试通过,要么不通过”)。方法论侧,martinfowler.com 已公开提出“我们需要类似代码覆盖率和变异测试的 Harness 覆盖率与质量评估方法”——把软件工程成熟度模型移植到 Harness 层的议程已经摆上台面。

    不确定性。其一,主观任务(设计、内容、咨询)缺乏二值判据,self-evaluation bias 在这类任务上尤其突出,评估者与被评估者分离的人工在环设计尚无收敛方案;其二,“最好的 eval 是什么”仍无定论(Dex Horthy 的开放性问题:让模型在不知道下一步是什么的情况下,在一个代码库里连续构建 20 个功能);其三,评估集本身会过拟合,Golden Dataset 的维护成本可能随任务复杂度超线性增长。

    2.3. Harness 标准化与互操作

    驱动力。智能体系统的接口分散带来双重成本:使用方被单一厂商锁定,供给方重复实现相同的接入层。标准化降低双方的交易成本,而生态规模已达到标准化的临界点。

    当前证据。标准化已从“事实标准”进入“中立治理”阶段(A 级):2025-12-09 Agentic AI Foundation(AAIF)在 Linux Foundation 下成立,Anthropic 捐赠 MCP、Block 捐赠 goose、OpenAI 捐赠 AGENTS.md;成立时 MCP 已有 10,000+ 公开服务器、SDK 月下载 9,700 万次,AGENTS.md 已被 60,000+ 开源项目采用。协议演进机制已建立:MCP 2026-07-28 版实现协议核心无状态化、引入 Extensions 框架、确立最短 12 个月窗口的正式弃用策略。多智能体互操作方面,A2A 于 2026-03 发布 v1.0(含 Signed Agent Cards),支持机构从 50+ 增至 150+。

    不确定性。其一,标准是演进还是冻结——OpenAI 工程师 Nick Cooper 公开表达了对标准僵化的担忧(“这些协议不应在基金会里停滞两年”),Linux Foundation 执行总监 Jim Zemlin 则承认“事实标准压倒法律标准”的风险;AAIF 的治理机制能否跟上模型与 Harness 的迭代速度,将决定 MCP 成为下一个 Kubernetes 还是下一个 CORBA。其二,本次调研未检索到 ISO/IEC 层面的智能体互联国际标准,若该层面出现进展,全球标准化格局的判断需要重写。

    2.4. 多智能体编排收敛

    驱动力。单智能体与多智能体架构之争是当前悬而未决的核心设计问题。驱动收敛的力量来自两端:编排复杂度与协调成本的实证压力(多智能体带来上下文重复、协调失败与错误放大),以及“模型内隐式规划”对显式编排的替代压力(模型能力提升使部分编排下沉进模型)。

    当前证据。两方面的证据并存(A 级):Anthropic 官方坦承“单个通用编码代理是否总是最优,还是拆成专职代理的多代理架构更好——目前尚不清楚”;OpenAI 的百万行代码实验以单智能体为主(约 100 万行代码、约 1,500 个 PR、人均 3.5 PR/天)。同时,多智能体在并行探索场景有明确收益(Anthropic 多智能体研究系统;子智能体的 token 经济学)。在内容生产领域,“模型内隐式规划”路线已经出现——视频生成模型在单次生成内自动完成多镜头规划与切换,与“节点式工作流”路线形成对照。

    不确定性。这是所有趋势中不确定性最高的一条:厂商官方自陈的问题多于已解问题。判断的可靠版本只能是弱命题——编排形态将按任务确定性程度分化(确定性流程用工作流、探索性任务用自主循环与子智能体派发),而不是收敛到单一架构。

    2.5. 端侧与本地 Harness

    驱动力。三条合规与经济压力把 Harness 往端侧与本地推:其一,数据不出域是硬约束(中注协明确禁止涉密信息输入公共 AI 平台;GB/T 45654—2025 对训练数据与敏感个人信息提出严格要求);其二,规模化调用的 API 成本与国产化算力供给;其三,端侧场景(个人设备、工业现场)对延迟与离线能力的要求。

    当前证据。三方面的证据(A/B 级):运行时向系统级语言下沉——Codex CLI 于 2025 下半年从 Node.js 重写为 Rust,官方理由为静态单文件分发、无 GC、可直接调用 OS 沙箱原语(重写比例约 95% 的数字标 [待核实]),这是 Harness 从“应用层工具”走向“系统软件”的信号;本地部署实践——中国建科基于 DeepSeek 本地私有化部署上线 AI 合同审核并全面推广,ComfyUI 提供完全本地离线的内容生产管线;开源权重模型适配国产算力——海螺 AI H3 开源权重并完成华为昇腾、摩尔线程、沐曦等多家国产芯片适配。

    不确定性。其一,端侧算力与内存对模型规模的约束在可预见的期间内不会消失,端云分工的边界会持续摆动;其二,本地 Harness 的评估与更新成本高于云端(无法共享上游回归集),其长期经济性待验证;其三,开源权重路线的合规责任完全在部署方(服务提供者身份不可让渡),治理成本可能抵消部分成本优势。

    2.6. 技术趋势小结

    趋势方向信心关键条件
    上下文工程自动化手工设计 → 声明式与自动化机制需评估层兜底
    评估驱动开发榜单外挂 → 系统内置组件主观任务判据未解
    标准化与互操作事实标准 → 中立治理演进机制能否持续
    多智能体编排收敛向“按确定性分化”收敛厂商自陈尚无定论
    端侧与本地 Harness云端单极 → 云端协同中高端侧算力与合规压力

    需要强调的总体不确定性:模型能力的跃迁节奏不可预测。若出现能力阶跃,本章多数架构判断需在 6 个月内重估——这是所有趋势判断的共同前提。


    3. 标准化趋势

    3.1. 全球分层标准栈

    图 3-1|全球智能体标准栈:从上下文接入到跨厂商身份

    全球智能体标准栈:从上下文接入到跨厂商身份 依据本文 3.1 节「全球分层标准栈」绘制 · 信息截至 2026-09-12 · 示意图基于本文分析 上下文与工具接入 · MCP AAIF(Linux Foundation)· Anthropic 捐赠 · 2025-12 捐赠 规范已至 2026-07-28 版 项目指引 · AGENTS.md AAIF · OpenAI 捐赠 已被 60,000+ 开源项目采用 执行框架 · goose AAIF · Block 捐赠 开放治理中 安全消息与外部协调 · A2A Linux Foundation · Google 捐赠 · 含 Signed Agent Cards 2026-03 发布 v1.0 A2A 衍生 · AP2 / A2UI / UCP 支付 / UI / 商务三大场景扩展 扩展中 跨厂商发现与身份 · AGNTCY 跨厂商智能体发现与身份机制 暂无权威一手资料 中国国家标准 · GB/Z 185—2026(本图重点) 七部分:身份码 → 身份管理 → 描述 → 发现 → 交互 → 工具调用 2026 年上半年发布 结构解读:标准栈呈双轨格局——AAIF 管「怎么连」(MCP / A2A),GB/Z 管「谁在连」(身份码); 两套身份体系的互认是未来 24 个月的关键议题,若不互认或形成双身份并行的全球智能体网络。

    数据来源:基于本文分析绘制的示意图。

    当前的智能体标准栈已呈现清晰分层(A 级,综合官方来源):

    层次标准归属状态
    上下文与工具接入MCPAAIF(Linux Foundation)2025-12 捐赠;规范已至 2026-07-28 版
    项目指引AGENTS.mdAAIF(OpenAI 捐赠)已被 60,000+ 开源项目采用
    执行框架gooseAAIF(Block 捐赠)开放治理中
    安全消息与外部协调A2ALinux Foundation(Google 捐赠)2026-03 发布 v1.0
    A2A 衍生AP2(支付)、A2UI(UI)、UCP(商务)扩展中
    跨厂商发现与身份AGNTCY仅见于综述提及,暂无权威一手资料
    中国:身份、描述、发现、交互、工具调用GB/Z 185—2026全国信息技术标准化技术委员会归口2026 年上半年发布(见 3.3 节)

    Google 官方对 MCP 与 A2A 分工的界定:"MCP manages internal tool integration, while A2A handles the vital external coordination between autonomous entities."

    3.2. 中立治理与开放治理的张力

    AAIF 的成立标志着标准化进入中立治理阶段(Platinum 成员含 AWS、Anthropic、Block、Bloomberg、Cloudflare、Google、Microsoft、OpenAI 八家)。但开放治理内部存在两条值得并列的张力:

    1. 演进 vs 冻结:标准需要稳定以支撑生态,又不能稳定到跟不上模型迭代。MCP 的 12 个月弃用窗口是当前对这一张力的制度化回答。
    2. 事实标准压倒法律标准:即便有开放治理,一家公司的实现仍可能因发得最快、用得最多而成为默认。Jim Zemlin 以 Kubernetes 类比"dominance emerges from merit and not vendor control"。

    判断:未来 12—24 个月标准化领域的最大看点不是“会不会有标准”(已有),而是“标准是演进还是冻结”。

    3.3. 中国专章:GB/Z 185—2026 智能体互联标准体系

    中国已发布全球范围内率先成体系的智能体互联国家标准。这是理解中国智能体产业治理路径的核心文本,本节单列。

    3.3.1. 标准基本信息
    项目内容
    名称《人工智能 智能体互联》
    编号GB/Z 185.1 ~ GB/Z 185.7—2026
    形式国家标准化指导性技术文件(GB/Z),属产业培育期的“敏捷标准化安排”
    指导单位工业和信息化部牵头单位中国电子技术标准化研究院,组织 70 余家产学研用单位研制归口全国信息技术标准化技术委员会提出并归口出版中国标准出版社定位中国媒体称“全球首套系统性智能体互联标准体系”(该表述未获国际方交叉印证)

    发布日期存在三种口径,须并列呈现并标 [待核实]:中国日报记 2026-05-22;百度百科记 2026-06-26;人民网 2026-07-09 报道(用语为“近日发布”)。本白皮书正文采用“2026 年上半年”,三种口径不作取舍。

    3.3.2. 七部分结构
    部分名称核心内容
    第 1 部分总体架构智能体互联的总体框架
    第 2 部分身份码(编码、分配与管理)遵循 GB/T 26231;分层 OID 标识体系;一个身份码只能对应一个智能体;交互前须双向身份鉴别
    第 3 部分身份管理(注册、账户、凭证、鉴别)智能体身份的全生命周期管理
    第 4 部分智能体描述能力描述及注册、发布、变更
    第 5 部分智能体发现智能体之间如何找到彼此
    第 6 部分智能体交互点对点、群组、混合三种交互模式
    第 7 部分外部工具调用架构、流程、数据格式

    七部分构成完整闭环:身份码(是谁)→ 身份管理(怎么证明)→ 描述(能做什么)→ 发现(怎么找到)→ 交互(怎么协作)→ 工具调用(怎么动手)。

    中国官方给出的智能体定义可作为中文语境的标准口径(A 级,归口单位标准解读):“智能体是具备自主感知、记忆、决策、交互与执行能力的新型智能系统,已成为人工智能产品与服务的关键载体。”

    3.3.3. 落地进展与后续规划
    • 落地进展:2026-08-31,《人工智能 智能体互联》国家标准应用(长三角区域)推进专题会在上海张江召开;思必驰、联想、中兴通讯、火山引擎、上海交通大学等 30 家单位获颁“智能体身份码节点”(A 级)。
  • 后续规划(A 级,官方明确):其一,适时推进身份码相关标准向强制性国家标准转化;其二,加快智能体审计、智能体交易等细分标准研制
  • 3.3.4. 更宏观的中国标准背景
    指标数值来源
    专项行动市场监管总局与工信部共同实施“人工智能百项国家标准建设专项行动计划”,统筹推进 146 项国标项目,涵盖算力、大模型、具身智能、智能体、终端同上(B 级,标 [待核实])
    3.3.5. 判断

    判断一 · 身份是中国路线的核心抓手。 七部分中有两部分直接关于身份,明确“一个身份码只能对应一个智能体”“交互前须双向身份鉴别”,且已规划向强制性国标转化。这释放出明确信号:智能体身份将是中国监管的入口。对在中国境内运营的 Harness 产品而言,身份码兼容性是需要提前布局的合规项。

    判断二 · GB/Z 的“指导性技术文件”形式意味着有限窗口。 采用 GB/Z 而非 GB/T 或强制性 GB,说明主管部门判断“产业仍在快速变化,此时不宜锁死”,这是务实的敏捷标准化安排;但“适时推进向强制性国标转化”同时意味着窗口期是有限的

    判断三 · 标准体系正从“互联互通”向“可审计、可交易”延伸。 智能体审计与智能体交易两个后续方向,恰好对应本白皮书六层模型中的 L6 治理与安全层与产业化商业闭环。

    3.4. 中美两条标准化路线的对照

    维度AAIF 路线(美国主导,多国参与)GB/Z 185—2026 路线(中国)
    形成路径自下而上:事实标准 → 捐赠 → 中立治理自上而下:顶层设计 → 指导性文件 → 择机转强制
    覆盖重点上下文与工具接入(MCP)、项目指引(AGENTS.md)、外部协调(A2A)身份码、身份管理、描述、发现、交互、工具调用
    身份机制A2A v1.0 的 Signed Agent Cards分层 OID 身份码 + 双向身份鉴别
    治理主体Linux Foundation 旗下基金会全国信息技术标准化技术委员会归口,工信部指导
    生态规模MCP 10,000+ 服务器、SDK 月下载 9,700 万次、AGENTS.md 60,000+ 项目70 余家单位研制;长三角首批 30 家身份码节点
    强制性自愿采用现为指导性;身份码部分规划转强制
    下游延伸AP2(支付)、A2UI(UI)、UCP(商务)智能体审计、智能体交易

    判断:两条路线短期内不会冲突,因为覆盖层次不同——AAIF 侧重“怎么连”,GB/Z 侧重“谁在连”。但随着 A2A 的 Signed Agent Cards 与 GB/Z 的身份码都进入落地阶段,身份体系的互认将成为未来 24 个月的关键议题;若不互认,全球智能体网络可能形成两张身份体系并行的格局。


    4. 产业趋势

    4.1. 采用已饱和,信任未跟上

    Stack Overflow 2025 开发者年度调研(A 级,2025-07-29 发布,49,000+ 份回答、177 国)给出的画像:

    指标数值
    正在使用或计划使用 AI 工具84%(2024 年 76%)
    专业开发者每日使用51%
    不信任 AI 输出准确性46%(2024 年 31%)
    高度信任3.1%(资深开发者 2.6%)
    正面情绪60%(2023/2024 为 70%+)
    AI agent 使用率(合计)约 31%;37.9% 不打算用
    用过 agent 者认为生产力提升69%
    最大挫败66%“AI 方案几乎对但不完全对”
    调试 AI 生成代码更耗时45.2%

    判断:84% 的采用率意味着市场已无教育成本;46% 的不信任率与 3.1% 的高度信任率意味着可预期性仍是未被满足的核心需求。信任缺口有多大,Harness 的市场空间就有多大。

    4.2. 企业侧效能数据

    以下数据来自汇总站转引,全部标 ,建议核对一手报告后使用

    来源关键数字
    DORA 2025(近 5,000 名技术从业者)90% 在工作中使用 AI;仅 24% 表示显著信任;AI 采用与交付吞吐正相关、与交付稳定性负相关
    McKinsey《The State of AI 2025》88% 组织至少一个职能常规使用 AI;62% 至少在试验 agent,23% 已在某处规模化 agentic 系统
    JetBrains 2025(24,534 名开发者、194 国)85% 定期使用 AI 工具;62% 依赖至少一个 AI 编码助手 / agent / 编辑器

    判断:DORA 的“与交付稳定性负相关”是最值得警惕的一条——当前 AI 采用主要提升了速度而非质量,这恰好是 Harness(尤其 L5 评估与 L6 治理)应该解决的问题。

    4.3. 中国市场动向

    以下条目均仅见于百科词条转述,全部标 ,建议二次核实后再用于决策

    时点动向
    2026-05-20DeepSeek 宣布组建 Harness 团队,发布 Agent Harness 产品经理与研发工程师岗位
    2026-06-11小米发布并开源 MiMo Code V0.1.0,为 MiMo 系列模型打造专属 Harness 系统
    2026-08中科大博士段逸凡创立灵犀智涌,推出第一代工业具身 Harness 系统 ROSS

    判断:这三条动向若属实,指向一个共同模式——模型厂商正在向 Harness 层延伸,“模型 + 专属 Harness”的一体化交付可能成为主流形态;“工业具身 Harness”则提示 Harness 概念正在从软件工程外溢到具身智能与工业场景。

    4.3.1. 产业动向补充证据(2026-09,由两轮快照增量合并)

    下表为 2026-09 上中旬的增量检索结果(原 4.3.1 / 4.3.2 两节合并,逐日追溯由各快照 CHANGELOG 与版本发布页(/spec/releases/v1.1/)4.1 节承担):

    时点动向证据等级
    2026-09-01Claude Code 2.1.257 将 Claude Fable 5.1 设为默认模型(1M token 上下文,$10/$50 每百万 token);至 09-12 连续发布 12 个版本(2.1.257—270),L5/L6 能力(/diff、/skill-doctor、plugin eval)逐版下沉A(官方 Changelog)
    2026-09-01Kiro Web GA(媒体口径;官方 FAQ 确认 Web 入口纳入 Pro 及以上付费计划、云端算力不单独计费)A(官方 FAQ)+ B(日期 [待核实]
    2026-09-02Gemini 3.8 Flash 发布:经济档模型承担代理任务(DeepSWE v1.1 约 73.8%,接近 GPT-6 Astra 的 74.1%),单价持平但单任务 token 消耗更高(部分口径约 +40%)——成本度量从单价转向任务成本;同步发布面向可信伙伴的 Gemini 3.8 Flash CyberA(官方公告,细节经媒体核对)
    2026-09-02/03NVIDIA 签署并宣布协议收购 Hugging Face(约 129.3 亿美元,SEC 8-K,预计 2027 上半年交割;承诺保持开放、多云多加速器、不强制 NVIDIA 算力)——开放模型生态分发层并入算力厂商A(SEC 文件转述 + 多源一致)
    2026-09-07GitHub Copilot 周更:Jira 集成、Copilot CLI 实验性自适应模型路由(Project HydraFusion)、VS Code 1.137 agent 任务调度与语音模式B(官方 Changelog 转述核对)
    2026-09-09Codex CLI 0.154.0:GPT-6 Astra 进模型选择器并登陆 Amazon Bedrock;rollout token 预算(跨线程记账、余量提醒、耗尽中止)把 L6 预算护栏带入开源执行栈B(官方 Changelog 转述核对)
    2026-09-10OpenAI Agents API 公测(官方 Changelog 核实):编排层显性定价为零、收入后置到模型与沙箱用量,九家沙箱伙伴;数据驻留仅限美国、不支持 ZDRA(官方)
    2026-09-10Cursor Projects(Beta):不写代码的协调者智能体派发并行子智能体,云端计算机承载,共享上下文随项目累积,Slack/定时/PR 信号触发——AI IDE 的 L3 编排层开始对象化A(官方 Changelog)
    2026-09-11Claude Code v2.1.269:插件评估套件(claude plugin eval,打分报告)与 /output-style;9 月上旬各版本引入组织级托管 MCP、无监督无头权限自动拒绝、maxEffortLevel 等 L6 治理能力A(官方)
    2026-09-11GitHub Copilot 代码评审集成式闭环:自动 resolve、上下文感知提交信息、ensemble 评审(高严重度 +47%、中严重度 +31%、成本 -8%,厂商自报)B(厂商自报)
    2026-09-06OpenAI 披露研究组织智能体使用数据:智能体工作日/人工作日 = 3.1:1,中位研究员日耗超 600 美元A(官方口径)
    2026-08-22MCP 路线图:智能体消息原语、HTTP 原生传输统一、智能体身份(DPoP/工作负载身份联邦)为下一规范周期优先项A(官方)
    2026-08-24小鹏机器人业务完成超 9 亿美元首轮融资(投后估值约 63 亿美元,国内具身智能单轮纪录;多源媒体一致,官方公告未见)B(多源媒体)
    2026-09-11超维动力超 5 亿元天使+轮融资获多源权威媒体确认(祥峰资本领投)——上一快照 C 级 [待核实] 条目升级为 B 级B(多源媒体)
    2026-09 上旬Figure AI 与 Nscale 算力合作(初始承诺 35 亿美元、规划至多 10 万颗 Vera Rubin GPU,Nscale 战略投资 Figure)——行业周报佐证,官方公告未见B [待核实](保留)
    2026-09-03—06广州云蝶科技发布系统级具身大脑 RoboForge(内置 Harness 模块:任务全流程证据链记录、失败样本转化为迭代素材;与南洋理工大学联合研发;Embodied Bench / LaRA 登顶为厂商自报)——“云蝶数据”名称更正为云蝶科技B(南方+等)+ C(基准数据)

    判断:本表印证两条主线并修订一处判断。其一,托管化运行时从判断变为既成事实——OpenAI Agents API 公测(编排层零定价)与 AWS Bedrock AgentCore GA(2026-06)相互印证,叠加 Cursor Projects 把编排层产品化为 AI IDE 内的一等对象,“编排与控制层(L3)的承载形态”正沿“自建框架 → 托管 API → IDE 内建对象”三条路径同步收敛。其二,算力与具身的交叉加速——机器人公司以算力规模为竞争壁垒(Figure—Nscale),资本持续供给(超维动力、小鹏),“系统级具身 Harness”出现具名产品(云蝶 RoboForge)。修订处:上一版“算力—分发层集中”此前仅有传闻级证据,现获 SEC 文件级支撑(NVIDIA—Hugging Face);结论章(03-架构 §5.2、07-治理与风险 §4.8)相关表述已于上一快照同步,无结论级推翻。

    4.4. 市场规模预测

    来源预测
    Grand View Research2025 年全球生成式 AI 市场约 222 亿美元,2033 年约 3,247 亿美元,CAGR 40.8%
    Bloomberg Intelligence2032 年约 2.3 万亿美元

    两组数字相差近一个数量级,根源在市场口径不同(模型 / 全栈 / AI 赋能服务),均标 ,仅宜作方向性引用。Harness 层本身的市场规模,本次调研未检索到权威测算,属 [待填写]


    5. 给四类角色的行动建议

    5.1. 开发者

    1. 把 AGENTS.md 当作“地图”而非“百科全书”:控制在约 100 行加结构化 docs/ 目录,让 Agent 按需加载细节,而不是把一切塞进一个巨型提示文件。
    2. 先建最小回归集,再扩工具:没有判据就无法判断工具增减是否有效;先有能判定成败的评估集,再谈工具生态。
    3. 工具少而明确:参考“移除大部分 agent 工具后表现更好”的社区实证(具体案例数字标 [待核实]),优先使用模型能直接理解的通用结构(文件系统、git、标准 CLI)。
    4. 确定性操作一律脚本化:凡是“只有代码才能提供的确定性可靠性”(格式转换、校验、导出、部署)的操作,封装为脚本调用,禁止让模型逐 token 生成。
    5. 为每个 Harness 组件标注“何时可以删除”:每次模型升级都可能让昨天的精巧设计变成摩擦;保持轻量,随时准备丢弃硬编码的“聪明”逻辑,并保存生成轨迹以备评估与复现。

    5.2. 架构师

    1. 用六层模型做架构自查:逐层确认 L1 上下文策略、L2 工具边界、L3 编排形态、L4 状态外化、L5 评估判据、L6 治理机制是否各有明确实现;多数系统短板集中在 L4 与 L5。
      1. 协议选型保持中立性:工具接入优先 MCP 兼容形态,多智能体协调预留 A2A 接口,避免把业务逻辑写死在单一厂商的私有协议上;同时为“某一家实现成为默认”准备替代路径。
    2. 评估者与被评估者分离:独立 Evaluator、多维权值与硬阈值评分,禁止系统给自己打分;与 GB/T 45654—2025 第 4.3.1 条的职责分离逻辑保持一致。
    3. 状态外化到文件系统与版本库:不依赖上下文堆积记忆;会话工件、检查点、审计轨迹均以可版本化、可回溯的形式持久化。
    4. 为身份体系预留接入位:境内产品预留 GB/Z 185—2026 身份码兼容能力,跨境协作场景预留 A2A Signed Agent Cards 验证能力——两套身份机制的落地都在加速。

    5.3. 技术管理者

    1. 把治理红线写成机械强制规则:不可逆动作禁止清单、出域拦截、标识写入与回读校验,实现为拦截与阻断,而非提示词要求(参见本白皮书 07-治理与风险 第 5 章)。
    2. 沙箱化换取自主性:Anthropic 官方数据显示沙箱使权限提示减少 84% 且更安全;更细的权限边界换来更少的人工打断与更高的自动化上限。
    3. 把轨迹数据当作资产沉淀:Harness 捕获的轨迹、评估集与失败模式库是模型采购带不走的护城河;从第一天起就规划轨迹的存储、标注与回流。
      1. 盯稳定性指标而非吞吐指标:DORA 揭示的“吞吐提升、稳定性下降”提醒管理者把交付稳定性、回滚成本与事故率纳入 AI 采用的考核口径。
    4. 治理影子 AI 与预算护栏并举:建立 AI 资产台账(AI BOM)与 AI 遥测日志,发现未经批准的 AI 使用;对任务与租户设预算上限与熔断,防止成本失控(IBM 2025 数据显示约五分之一组织因影子 AI 发生泄露)。

    5.4. 监管与合规

    1. 以 ISO/IEC 42001 或 NIST AI RMF 建立管理体系骨架:产出适用性声明(SoA)或风险登记册,把 38 项控制(42001)或四功能(AI RMF)映射为组织内部的权限、日志与评估机制;注意 42001 不赋予 EU AI Act 合规推定。
    2. 把标识义务落到工程管线:依据《人工智能生成合成内容标识办法》(2025-09-01 施行)与 GB 45438—2025,显式与隐式标识由导出管线自动写入并回读校验,标识相关日志留存不少于六个月;即梦 AI 2026-04-28 被查处的案例说明导出与分发环节是监管检查的落点。
      1. 落实职责分离与责任不可转移:生成与审核不得同一身份(GB/T 45654—2025 第 4.3.1 条);对外声明与内控设计均以“AI 不减轻人的责任”为前提(中注协 2026-03-05、IESBA 2026、最高人民法院“辅助审判”定位口径一致)。
      2. 建设证据链能力:每次关键输出绑定五元组(输入快照 + 工具调用日志 + 输出 + 人工确认记录 + 哈希),与《生成式人工智能服务管理暂行办法》第十九条的说明义务同构;司法侧“举证责任转移”(北京互联网法院 2026-03 判决)已把创作过程可复现变成攻防关键。
    3. 跟踪智能体身份与审计标准的转化节奏:GB/Z 185—2026 身份码相关标准已规划向强制性国标转化,智能体审计、智能体交易细分标准在研制中;对境内运营的智能体系统,提前布局身份码兼容与审计留痕能力即是提前布局准入条件。

    6. 本白皮书的局限与开放问题

    6.1. 本白皮书的局限

    本白皮书的结论受以下四条局限约束,使用时应据此界定适用范围:

    1. 时间截面局限:全部素材截至 2026-09-13。智能体领域的监管文本、标准与产品在以月为单位更新,特别是 GB/Z 185—2026 发布日期、EU AI Act 时间线(AI Omnibus 拟议调整)等事项存在口径冲突或调整中状态,引用时须回查最新官方文本。
  • 来源等级局限:中国侧的企业实证多为券商研究与媒体转述(B 级),未能逐条回溯年报原文;企业效能数据(DORA、McKinsey、JetBrains)均来自汇总站转引,全部标 。
  • 覆盖范围局限:本白皮书以工程与治理视角为主,对部分行业的专项监管素材不足(如医疗 AI 的中国专项监管文本未获取条文级来源);Harness 层自身的市场规模无权威测算。
    1. 方法局限:本工程为文献调研,未含一手访谈与实验;对“模型与 Harness 后训练耦合”等机制性判断,依据的是厂商官方自陈而非独立复现。

    6.2. 开放问题清单

    以下问题为厂商与研究者公开自陈尚未解决、或本工程判断尚需验证的,它们定义了下一代 Harness 的议程。本白皮书不做推测性回答,仅如实记录:

    来自厂商官方(A 级)

    1. 单个通用编码代理是否总是最优,还是拆成专职代理的多代理架构更好——Anthropic 官方坦承“目前尚不清楚”。
    2. 长时运行智能体的经验能否推广到科学研究或金融建模等其他长周期任务——官方称“答案尚在摸索中”。
  • 我们需要类似代码覆盖率和变异测试的 Harness 覆盖率与质量评估方法——martinfowler.com 公开提出,尚无公认方案。
  • Harness 变大后,如何保持前馈控制(guides)与反馈控制(sensors)同步而不自相矛盾;指令与反馈信号冲突时,能在多大程度上信任 agent 的取舍。
  • 来自本工程的判断(待验证)

    1. 模型与特定 Harness 结构深度后训练耦合后,“更换 Harness”的成本会如何变化——这决定未来 Harness 是可替换的中间件,还是锁定的基础设施。
    2. 中美两套身份体系(A2A Signed Agent Cards 与 GB/Z 身份码)是否会互认——这决定全球智能体网络是一张网还是两张网。
    3. 端侧 Harness 的评估与更新成本能否随工具链成熟而摊薄——决定“数据不出域”场景的长期经济性。
    4. GB/Z 185—2026 发布日期三种口径(2026-05-22 / 2026-06-26 / 2026-07-09)的权威确认——须以中国标准出版社或全国标准信息公共服务平台的正式公告为准。

    7. 总结

    本章的判断可以压缩为四句话:

    技术上,Harness 会变轻但不会消失。 模型与 Harness 是共同演化关系:模型变强会吸收一部分 Harness 职责,同时新增另一部分;评估方法论是当前成熟度最低、边际收益最高的一层,未来 12—24 个月最可能出现突破的不是模型,而是评估。

    标准上,窗口正在关闭。 AAIF 已建立中立治理,MCP 已确立演进机制;中国以 GB/Z 185—2026 七部分建立了体系化的智能体互联标准,并以身份码为核心抓手规划向强制性国标转化。两条路线短期互补,长期需要在身份层面互认。

    产业上,采用已饱和而信任未跟上。 84% 的采用率与 3.1% 的高度信任率之间的缺口,就是 Harness 的市场空间;“吞吐提升但稳定性下降”的实证,正是 L5 与 L6 应该解决的问题。

    行动上,四类角色各有抓手。 开发者先建判据、保持轻量;架构师六层自查、预留身份接口;管理者红线机械化、沉淀轨迹资产;监管与合规落到管线、落实分离、跟踪转化。

    一句话结论:AI Harness 正在从“工程技巧”变成“工程学科”,从“成本中心”变成“数据资产”,从“厂商私有”变成“公共基础设施”;而它的下一个战场,在评估与身份。


    8. 信息缺口声明

    1. GB/Z 185—2026 发布日期:2026-05-22 / 2026-06-26 / 2026-07-09 三种口径并存,本白皮书并列呈现,正文采用“2026 年上半年”,待权威确认。
  • ISO/IEC 层面的智能体互联国际标准:未检索到已发布或已立项的标准编号,暂无权威信息。
  • AGNTCY 项目:仅见于综述提及,暂无权威一手资料。
  • DORA 2025 / McKinsey 2025 / JetBrains 2025 全部数字:来自汇总站转引,标 。
  • 中国厂商动向(DeepSeek 组建 Harness 团队、小米 MiMo Code、灵犀智涌 ROSS):均仅见于百科词条转述,标 。
  • Codex CLI Rust 重写比例(约 95%):B 级来源,标 。
    1. “Harness 层自身市场规模”:未检索到权威测算,属 [待填写]。
  • 上下文退化量化数字、架构重构案例数字(Manus 五次重构、LangChain 三次重设计、Vercel 移除 80% 工具):B/C 级来源,标 。
  • 中国标准背景数字(近 200 项关键标准、146 项专项行动):B 级转述,标 。
  • 建议补充检索的方向:中国信通院与 AIIA 的团体标准;OWASP Agentic AI Top 10;IEEE 智能体标准立项;欧盟 AI Act 中与自主智能体相关的条款。

  • 9. 参考资料

    1. Harness design for long-running application development — Anthropic,2026。https://www.anthropic.com/engineering/harness-design-long-running-apps
    2. Effective harnesses for long-running agents — Anthropic,2025。https://www.anthropic.com/engineering/effective-harnesses-for-long-running-agents
    3. Effective context engineering for AI agents — Anthropic,2025。https://www.anthropic.com/engineering/effective-context-engineering-for-ai-agents
    4. Harness engineering: leveraging Codex in an agent-first world — OpenAI,2026-02-11。https://openai.com/index/harness-engineering/
    5. Linux Foundation Announces the Formation of the AAIF — Linux Foundation / AAIF,2025-12-09。https://aaif.io/
    6. Model Context Protocol 官方站与规范(2026-07-28 版)— MCP / AAIF。https://modelcontextprotocol.io/specification/2026-07-28/
    7. A year of open collaboration: Celebrating the anniversary of A2A — Google Open Source Blog,2026-04-16。https://opensource.googleblog.com/
    8. Linux Foundation Launches the Agent2Agent Protocol Project — Linux Foundation,2025-06-23。https://www.linuxfoundation.org/press/linux-foundation-launches-the-agent2agent-protocol-project-to-enable-secure-intelligent-communication-between-ai-agents
    9. 《人工智能 智能体互联》系列国家标准(发布报道)— 人民网,2026-07-09。https://finance-app.people.cn/n1/2026/0709/c1004-40757059.html
    10. 《人工智能 智能体互联》系列国家标准解读 — 中国产业经济信息网,2026。https://cinic.org.cn/xw/zcdt/1643418.html
    11. GB/Z 185—2026 落地:长三角智能体身份码节点首批发放 — 中国日报,2026-09-04。https://cn.chinadaily.com.cn/a/202609/04/WS6a9a6773e4b09a165c788098.html
    12. 2025 Stack Overflow Developer Survey — Stack Overflow,2025-07-29。https://survey.stackoverflow.co/2025/
    13. Harness engineering for coding agent users — Birgitta Böckeler,martinfowler.com,2026。https://martinfowler.com/articles/harness-engineering.html
    14. Humans and Agents in Software Engineering Loops — martinfowler.com,2026。https://martinfowler.com/articles/exploring-gen-ai/humans-and-agents.html
    15. AI Adoption Stats & Trends(DORA / McKinsey / JetBrains 汇总,数字标 )— daily.dev,2026-07-19。https://daily.dev/agentic-ai-hub/ai-adoption-stats-trends/
    16. NIST AI Risk Management Framework (AI RMF 1.0) — NIST,2023。https://www.nist.gov/itl/ai-risk-management-framework
    17. 中注协提示会计师事务所在 2025 年年报审计中使用人工智能技术的风险防范 — 中国注册会计师协会,2026-03-05。https://cicpa.org.cn/xxfb/news/202603/t20260305_65842.html
      1. 《技术不是侵权“挡箭牌” 法院这样认定 AI“盗脸”》— 新华社《经济参考报》,2026-04-17。http://dz.jjckb.cn/www/pages/webpage2009/html/2026-04/17/content_115180.htm
    18. Sandboxing: a safer and more autonomous approach — Anthropic,2025。https://www.anthropic.com/engineering/claude-code-sandboxing
    19. SWE-bench 官方站 — Princeton / 社区。https://www.swebench.com/
    20. Terminal-Bench — Stanford / Laude Institute。https://www.tbench.ai/
    21. OpenAI Codex CLI(开源仓库)— OpenAI。https://github.com/openai/codex
    22. Agent2Agent (A2A) 协议(开源仓库)— Linux Foundation / Google。https://github.com/a2aproject/A2A
    23. 12-Factor Agents — Dex Horthy / HumanLayer。https://github.com/humanlayer/12-factor-agents

    Outlook


    1. Judgment Method and Fact Standards

    This chapter makes judgments about the future and therefore strictly enforces three caliber disciplines:

    1. Separation of facts and judgments: statements with a cited source are factual statements; the inferences of this chapter uniformly begin with "Judgment:".
    2. Three-part trend structure: each technological trend is presented in three parts — "Drivers / Current evidence / Uncertainty"; the uncertainty part candidly states the conditions under which the trend may fail to materialize or deviate in form.
    3. Source levels: Level A consists of official first-hand statements from vendors or institutions and may be cited directly; B/C-level figures are uniformly marked; matters for which no authoritative information is available are declared as such, without speculative fill-in.

    2. Technological Trends

    2.1. Automation of Context Engineering

    Drivers. Context engineering has become the first engineering lever of agentic systems, but it is still mostly manual: information degradation within the context window, state management in long-running tasks, and the prioritization of multi-source information all rely on manual design by engineers. Three pressures drive its automation: first, long-running tasks (a single task often exceeding 6 hours, per OpenAI's official experimental baseline) make manual context maintenance unsustainable; second, the impact of context degradation on model performance has been confirmed by multiple experiments (the relevant quantitative figures are marked [To be verified]); third, token costs make "full injection" economically infeasible.

    Current evidence. Automation mechanisms have already landed in leading products (Level A): Anthropic officially provides four strategies — compaction (compression), note-taking (notes), memory tool (memory tool), and sub-agent (sub-agent dispatch, where a sub-agent consumes tens of thousands of tokens but returns only a 1,000–2,000-token summary); the three-level progressive disclosure mechanism of Agent Skills turns "what to load when" into declarative rules; Lance Martin's four pillars (Write / Select / Compress / Isolate) and Anthropic's four strategies have formed two mutually translatable taxonomies, indicating that this layer is converging on a standard terminology system. The statelessness and cache-reuse mechanisms of the 2026-07-28 edition of the MCP specification provide protocol-layer support for context management.

    Uncertainty. First, the extension of models' effective context will absorb part of the demand for compression and pruning (Anthropic officially states that it is "dynamically retiring redundant Harness designs as model capabilities improve"); the boundary of automation will drift along with model capabilities. Second, automatic compression may lose task-critical information, and its reliability itself requires a safety net from the evaluation layer — automation of context engineering and evaluation-driven development (see Section 2.2) are mutually dependent trends.

    2.2. Evaluation-Driven Development

    Drivers. The vast gap between adoption and trust (see Section 4.1) makes "predictability" the core purchase reason for agentic systems, and predictability can only be delivered by the evaluation layer. At the same time, enterprise-side productivity data suggest that the speed dividend is approaching its ceiling: DORA 2025 shows that AI adoption is positively correlated with software delivery throughput but negatively correlated with delivery stability ([To be verified]) — once the speed dividend is exhausted, the engineering focus will inevitably shift to quality and stability, i.e., evaluation.

    Current evidence. Evaluation has been internalized from external leaderboards into system components (Level A): OpenAI has built tracing into its Agents SDK; Anthropic has built an independent Evaluator and hard-threshold scoring into its long-running Harness; Google ADK ships AgentEvaluator.evaluate() natively, which can score both the final response and the step-by-step trajectory. On the benchmark side, SWE-bench and Terminal-Bench have established the standard for programmatic criteria ("either the automated test passes, or it does not"). On the methodology side, martinfowler.com has publicly proposed "we need Harness coverage and quality evaluation methods analogous to code coverage and mutation testing" — the agenda of porting the software-engineering maturity model to the Harness layer is now on the table.

    Uncertainty. First, subjective tasks (design, content, consulting) lack binary criteria, self-evaluation bias is particularly pronounced on such tasks, and human-in-the-loop designs that separate the evaluator from the evaluated have no convergent solution yet; second, "what is the best eval" remains unsettled (Dex Horthy's open question: have a model build 20 features in a row in a codebase without knowing what comes next); third, the evaluation set itself can overfit, and the maintenance cost of a Golden Dataset may grow super-linearly with task complexity.

    2.3. Harness Standardization and Interoperability

    Drivers. The fragmentation of interfaces in agentic systems brings a dual cost: users are locked in to a single vendor, and providers repeatedly reimplement the same access layer. Standardization reduces the transaction costs of both sides, and the scale of the ecosystem has reached the tipping point for standardization.

    Current evidence. Standardization has moved from "de facto standards" to the "neutral governance" stage (Level A): on 2025-12-09 the Agentic AI Foundation (AAIF) was established under the Linux Foundation, with Anthropic donating MCP, Block donating goose, and OpenAI donating AGENTS.md; at its founding, MCP already had 10,000+ public servers and 97 million SDK downloads per month, and AGENTS.md was already adopted by 60,000+ open-source projects. Protocol evolution mechanisms have been established: the 2026-07-28 edition of MCP makes the protocol core stateless, introduces an Extensions framework, and establishes a formal deprecation policy with a minimum 12-month window. On multi-agent interoperability, A2A released v1.0 in 2026-03 (including Signed Agent Cards), and supporting organizations grew from 50+ to 150+.

    Uncertainty. First, whether standards will evolve or freeze — OpenAI engineer Nick Cooper has publicly expressed concern about standards becoming rigid ("these protocols should not stagnate in a foundation for two years"), and Linux Foundation Executive Director Jim Zemlin acknowledges the risk that "de facto standards override legal standards"; whether AAIF's governance mechanisms can keep up with the iteration speed of models and Harness will determine whether MCP becomes the next Kubernetes or the next CORBA. Second, this research did not find any international standards for agent interconnection at the ISO/IEC level; if progress appears at that level, the judgment on the global standardization landscape will need to be rewritten.

    2.4. Convergence of Multi-Agent Orchestration

    Drivers. The contest between single-agent and multi-agent architectures is the currently unresolved core design question. The forces driving convergence come from two ends: the empirical pressure of orchestration complexity and coordination costs (multi-agent brings context duplication, coordination failures, and error amplification), and the substitution pressure of "implicit planning inside the model" on explicit orchestration (improving model capabilities push part of the orchestration down into the model).

    Current evidence. Evidence from both sides coexists (Level A): Anthropic officially concedes that "whether a single general-purpose coding agent is always optimal, or a multi-agent architecture split into specialist agents is better — it is currently unclear"; OpenAI's million-line code experiment was primarily single-agent (approximately 1 million lines of code, approximately 1,500 PRs, 3.5 PRs per person per day). At the same time, multi-agent delivers clear benefits in parallel-exploration scenarios (Anthropic's multi-agent research system; the token economics of sub-agents). In the content-production domain, the "implicit planning inside the model" route has already emerged — video generation models automatically complete multi-shot planning and switching within a single generation, in contrast to the "node-based workflow" route.

    Uncertainty. This is the trend with the highest uncertainty among all: vendor official statements report more open problems than solved ones. The reliable version of the judgment can only be a weak proposition — orchestration forms will differentiate by the degree of task certainty (deterministic flows use workflows, exploratory tasks use autonomous loops and sub-agent dispatch), rather than converging on a single architecture.

    2.5. Edge and Local Harness

    Drivers. Three compliance and economic pressures push Harness toward the edge and local deployment: first, data not leaving the domain is a hard constraint (中注协 explicitly prohibits feeding confidential information into public AI platforms; GB/T 45654—2025 imposes strict requirements on training data and sensitive personal information); second, the API cost of scaled invocation and the supply of domestic compute; third, the latency and offline-capability requirements of edge scenarios (personal devices, industrial sites).

    Current evidence. Evidence from three aspects (Level A/B): runtimes moving down to system-level languages — Codex CLI was rewritten from Node.js to Rust in the second half of 2025, with the official rationale being static single-file distribution, no GC, and direct invocation of OS sandbox primitives (the figure of an approximately 95% rewrite ratio is marked [To be verified]); this is a signal of Harness moving from "application-layer tool" to "system software". Local deployment practice — 中国建科, based on a local private deployment of DeepSeek, launched AI contract review and rolled it out comprehensively; ComfyUI provides a fully local, offline content-production pipeline. Open-weight models adapted to domestic compute — 海螺 AI open-sourced the weights of H3 and completed adaptation to multiple domestic chips including 华为昇腾, 摩尔线程, and 沐曦.

    Uncertainty. First, the constraints of edge compute and memory on model scale will not disappear in the foreseeable period, and the boundary of the edge–cloud division of labor will continue to swing; second, the evaluation and update costs of local Harness are higher than in the cloud (upstream regression sets cannot be shared), and their long-term economics remain to be validated; third, the compliance responsibility of the open-weight route lies entirely with the deployer (the service-provider identity is non-transferable), and governance costs may offset part of the cost advantage.

    2.6. Summary of Technological Trends

    TrendDirectionConfidenceKey Condition
    Automation of context engineeringManual design → declarative and automated mechanismsHighRequires a safety net from the evaluation layer
    Evaluation-driven developmentLeaderboard add-on → built-in system componentHighCriteria for subjective tasks unresolved
    Standardization and interoperabilityDe facto standard → neutral governanceHighWhether the evolution mechanism can be sustained
    Convergence of multi-agent orchestrationConverging toward "differentiation by certainty"MediumVendor statements still inconclusive
    Edge and local HarnessCloud unipolar → cloud–edge coordinationMedium-HighEdge compute and compliance pressure

    The overall uncertainty that needs emphasis: the pace of leaps in model capability is unpredictable. If a capability leap occurs, most architectural judgments in this chapter must be reassessed within 6 months — this is the common premise of all trend judgments.


    3. Standardization Trends

    3.1. The Global Layered Standard Stack

    图 3-1|全球智能体标准栈:从上下文接入到跨厂商身份

    全球智能体标准栈:从上下文接入到跨厂商身份 依据本文 3.1 节「全球分层标准栈」绘制 · 信息截至 2026-09-12 · 示意图基于本文分析 上下文与工具接入 · MCP AAIF(Linux Foundation)· Anthropic 捐赠 · 2025-12 捐赠 规范已至 2026-07-28 版 项目指引 · AGENTS.md AAIF · OpenAI 捐赠 已被 60,000+ 开源项目采用 执行框架 · goose AAIF · Block 捐赠 开放治理中 安全消息与外部协调 · A2A Linux Foundation · Google 捐赠 · 含 Signed Agent Cards 2026-03 发布 v1.0 A2A 衍生 · AP2 / A2UI / UCP 支付 / UI / 商务三大场景扩展 扩展中 跨厂商发现与身份 · AGNTCY 跨厂商智能体发现与身份机制 暂无权威一手资料 中国国家标准 · GB/Z 185—2026(本图重点) 七部分:身份码 → 身份管理 → 描述 → 发现 → 交互 → 工具调用 2026 年上半年发布 结构解读:标准栈呈双轨格局——AAIF 管「怎么连」(MCP / A2A),GB/Z 管「谁在连」(身份码); 两套身份体系的互认是未来 24 个月的关键议题,若不互认或形成双身份并行的全球智能体网络。

    数据来源:基于本文分析绘制的示意图。

    The current agent standard stack already presents a clear layering (Level A, synthesizing official sources):

    LayerStandardOwnershipStatus
    Context and tool accessMCPAAIF (Linux Foundation)Donated in 2025-12; specification now at the 2026-07-28 edition
    Project guidanceAGENTS.mdAAIF (donated by OpenAI)Adopted by 60,000+ open-source projects
    Execution frameworkgooseAAIF (donated by Block)Under open governance
    Secure messaging and external coordinationA2ALinux Foundation (donated by Google)v1.0 released in 2026-03
    A2A derivativesAP2 (payments), A2UI (UI), UCP (commerce)Extending
    Cross-vendor discovery and identityAGNTCYMentioned only in reviews; no authoritative first-hand material yet
    China: identity, description, discovery, interaction, tool invocationGB/Z 185—2026Under the jurisdiction of 全国信息技术标准化技术委员会Released in H1 2026 (see Section 3.3)

    Google's official delineation of the division of labor between MCP and A2A: "MCP manages internal tool integration, while A2A handles the vital external coordination between autonomous entities."

    3.2. The Tension Between Neutral and Open Governance

    The establishment of AAIF marks standardization entering the neutral governance stage (Platinum members include eight organizations: AWS, Anthropic, Block, Bloomberg, Cloudflare, Google, Microsoft, OpenAI). But within open governance there are two tensions worth placing side by side:

    1. Evolution vs. freezing: standards need stability to support the ecosystem, but cannot be so stable as to fall behind model iteration. MCP's 12-month deprecation window is the current institutionalized answer to this tension.
    2. De facto standards overriding legal standards: even with open governance, one company's implementation may still become the default by shipping the fastest and being used the most. Jim Zemlin uses the Kubernetes analogy: "dominance emerges from merit and not vendor control".

    Judgment: in the coming 12–24 months, the biggest watch item in standardization is not "whether there will be standards" (there already are), but "whether standards will evolve or freeze".

    3.3. China Special Chapter: The GB/Z 185—2026 Agent Interconnection Standard System

    China has issued the first systematic national standard for agent interconnection in the world. This is the core text for understanding the governance path of China's agent industry, and this section is set apart on its own.

    3.3.1. Basic Information on the Standard
    ItemContent
    Name《人工智能 智能体互联》
    NumberGB/Z 185.1 ~ GB/Z 185.7—2026
    FormNational standardization guiding technical document (GB/Z), an "agile standardization arrangement" during the industry cultivation period
    Guiding body工业和信息化部
    Leading body中国电子技术标准化研究院, organizing 70+ industry-academia-research-application units in its development
    JurisdictionProposed by and under the jurisdiction of 全国信息技术标准化技术委员会
    Publisher中国标准出版社
    PositioningChinese media call it "the world's first systematic agent interconnection standard system" (this characterization has not been cross-verified by international parties)

    Three versions of the release date exist; they must be presented side by side and marked [To be verified]: 中国日报 records 2026-05-22; 百度百科 records 2026-06-26; a 人民网 report dated 2026-07-09 (worded as "released recently"). The body of this whitepaper adopts "H1 2026" and does not adjudicate among the three versions.

    3.3.2. The Seven-Part Structure
    PartNameCore Content
    Part 1Overall architectureThe overall framework of agent interconnection
    Part 2Identity code (coding, allocation, and management)Follows GB/T 26231; hierarchical OID identification system; one identity code can correspond to only one agent; bidirectional identity authentication is required before interaction
    Part 3Identity management (registration, accounts, credentials, authentication)Full lifecycle management of agent identity
    Part 4Agent descriptionCapability description and its registration, publication, and change
    Part 5Agent discoveryHow agents find each other
    Part 6Agent interactionThree interaction modes: point-to-point, group, and hybrid
    Part 7External tool invocationArchitecture, processes, and data formats

    The seven parts form a complete closed loop: identity code (who it is) → identity management (how to prove it) → description (what it can do) → discovery (how to find it) → interaction (how to collaborate) → tool invocation (how to act).

    The definition of an agent given by Chinese officials can serve as the standard formulation in the Chinese context (Level A, standard interpretation by the jurisdictional body): "An agent is a new type of intelligent system with autonomous perception, memory, decision-making, interaction, and execution capabilities, and has become a key carrier of artificial intelligence products and services."

    3.3.3. Implementation Progress and Follow-up Plans
    • Implementation progress: on 2026-08-31, the application (Yangtze River Delta region) promotion special meeting for the 《人工智能 智能体互联》 national standard was held in Zhangjiang, Shanghai; 30 organizations including 思必驰, 联想, 中兴通讯, 火山引擎, and 上海交通大学 were awarded "agent identity code nodes" (Level A).
    • Follow-up plans (Level A, officially explicit): first, advance the conversion of identity-code-related standards into mandatory national standards at an appropriate time; second, accelerate the development of sub-standards for agent auditing, agent trading, and the like.
    3.3.4. The Broader Chinese Standardization Background
    IndicatorValueSource
    Key AI standards developedNearly 200工业和信息化部 Vice Minister 辛国斌, State Council Information Office press conference 2026-08-26 (B-level relay, marked)
    Special action市场监管总局 and 工信部 jointly implement the "Special Action Plan for the Construction of 100 National AI Standards," coordinating 146 national standard projects covering compute, large models, embodied intelligence, agents, and terminalsIbid. (Level B, marked [To be verified])
    3.3.5. Judgments

    Judgment One: identity is the core lever of the Chinese route. Two of the seven parts deal directly with identity, explicitly stating that "one identity code can correspond to only one agent" and that "bidirectional identity authentication is required before interaction," and conversion to a mandatory national standard is already planned. This releases a clear signal: agent identity will be the entry point of Chinese regulation. For Harness products operating within China, identity-code compatibility is a compliance item that requires early positioning.

    Judgment Two: the "guiding technical document" form of GB/Z means a limited window. Adopting GB/Z rather than GB/T or a mandatory GB indicates that the competent authorities judge that "the industry is still changing rapidly and should not be locked in at this time"; this is a pragmatic agile standardization arrangement; but "advancing conversion to a mandatory national standard at an appropriate time" also means the window is limited.

    Judgment Three: the standard system is extending from "interconnection" to "auditable, tradeable." The two follow-up directions of agent auditing and agent trading correspond precisely to the L6 governance and safety layer and the industrialization business closed loop in this whitepaper's six-layer model.

    3.4. A Comparison of the Two US–China Standardization Routes

    DimensionAAIF route (US-led, multi-country participation)GB/Z 185—2026 route (China)
    Formation pathBottom-up: de facto standard → donation → neutral governanceTop-down: top-level design → guiding document → conversion to mandatory at the opportune moment
    Coverage focusContext and tool access (MCP), project guidance (AGENTS.md), external coordination (A2A)Identity code, identity management, description, discovery, interaction, tool invocation
    Identity mechanismSigned Agent Cards in A2A v1.0Hierarchical OID identity code + bidirectional identity authentication
    Governance bodyA foundation under the Linux FoundationUnder the jurisdiction of 全国信息技术标准化技术委员会, guided by 工信部
    Ecosystem scaleMCP 10,000+ servers, 97 million SDK downloads per month, 60,000+ AGENTS.md projectsDeveloped by 70+ organizations; first 30 identity-code nodes in the Yangtze River Delta
    MandatorinessVoluntary adoptionCurrently guiding; the identity-code part is planned for conversion to mandatory
    Downstream extensionAP2 (payments), A2UI (UI), UCP (commerce)Agent auditing, agent trading

    Judgment: the two routes will not conflict in the short term, because the layers they cover differ — AAIF focuses on "how to connect," GB/Z on "who is connecting." But as both A2A's Signed Agent Cards and GB/Z's identity code enter the implementation stage, mutual recognition of the identity systems will become a key agenda item in the next 24 months; without mutual recognition, the global agent network may form a landscape of two identity systems running in parallel.


    4. Industry Trends

    4.1. Adoption Is Saturated; Trust Has Not Kept Up

    The profile given by the Stack Overflow 2025 Developer Survey (Level A, released 2025-07-29, 49,000+ responses, 177 countries):

    MetricValue
    Currently using or planning to use AI tools84% (76% in 2024)
    Professional developers use daily51%
    Do not trust the accuracy of AI output46% (31% in 2024)
    Highly trust3.1% (2.6% among senior developers)
    Positive sentiment60% (70%+ in 2023/2024)
    AI agent usage rate (total)About 31%; 37.9% do not plan to use
    Those who have used an agent believe productivity improved69%
    Biggest frustration66% "AI solutions are almost right but not entirely right"
    Debugging AI-generated code takes more time45.2%

    Judgment: an 84% adoption rate means the market no longer has an education cost; a 46% distrust rate and a 3.1% high-trust rate mean predictability is still an unmet core need. As large as the trust gap is, so is the market space for Harness.

    4.2. Enterprise-Side Productivity Data

    The following data come from relays by aggregation sites; all are marked; we recommend verifying against the primary reports before use:

    SourceKey Figures
    DORA 2025 (nearly 5,000 technology professionals)90% use AI at work; only 24% express significant trust; AI adoption is positively correlated with delivery throughput and negatively correlated with delivery stability
    McKinsey "The State of AI 2025"88% of organizations use AI routinely in at least one function; 62% are at least piloting agents, 23% have scaled agentic systems somewhere
    JetBrains 2025 (24,534 developers, 194 countries)85% regularly use AI tools; 62% rely on at least one AI coding assistant / agent / editor

    Judgment: DORA's "negatively correlated with delivery stability" is the most caution-warranting item — current AI adoption has mainly improved speed rather than quality, which is precisely the problem Harness (especially L5 evaluation and L6 governance) should solve.

    4.3. Developments in the Chinese Market

    The following items are all found only in relays by encyclopedia entries; all are marked, and we recommend a second verification before using them for decisions:

    DateDevelopment
    2026-05-20DeepSeek announced the formation of a Harness team and published Agent Harness product manager and R&D engineer positions
    2026-06-11小米 released and open-sourced MiMo Code V0.1.0, building a dedicated Harness system for the MiMo model family
    2026-08段逸凡, a PhD from 中科大, founded 灵犀智涌 and launched the first-generation industrial embodied Harness system ROSS

    Judgment: if these three developments are factual, they point to a common pattern — model vendors are extending toward the Harness layer, and integrated delivery of "model + dedicated Harness" may become the mainstream form; "industrial embodied Harness" signals that the Harness concept is spilling over from software engineering into embodied intelligence and industrial scenarios.

    4.3.1. Supplementary Evidence on Industry Developments (2026-09, incrementally merged from two rounds of snapshots)

    The table below gives the incremental search results from early-to-mid September 2026 (the former Sections 4.3.1 / 4.3.2 are merged; day-by-day traceability is handled by each snapshot's CHANGELOG and Section 4.1 of the v1.1 release page (/spec/releases/v1.1/)):

    DateDevelopmentEvidence Grade
    2026-09-01Claude Code 2.1.257 sets Claude Fable 5.1 as the default model (1M-token context, $10/$50 per million tokens); up to 09-12, 12 consecutive versions released (2.1.257—270), with L5/L6 capabilities (/diff, /skill-doctor, plugin eval) sinking down version by versionA (official Changelog)
    2026-09-01Kiro Web GA (per media; the official FAQ confirms the Web entry is included in Pro and above paid plans, and cloud compute is not billed separately)A (official FAQ) + B (date [To be verified])
    2026-09-02Gemini 3.8 Flash released: the economy-tier model handles agentic tasks (DeepSWE v1.1 about 73.8%, close to GPT-6 Astra's 74.1%); the unit price is flat but per-task token consumption is higher (about +40% by some accounts) — cost measurement shifts from unit price to task cost; Gemini 3.8 Flash Cyber for trusted partners released simultaneouslyA (official announcement, details verified via media)
    2026-09-02/03NVIDIA signed and announced an agreement to acquire Hugging Face (about USD 12.93 billion, SEC 8-K, expected to close in H1 2027; committed to staying open, multi-cloud with multi-accelerators, and not mandating NVIDIA compute) — the distribution layer of the open-model ecosystem is absorbed into a compute vendorA (SEC filing relay + multi-source agreement)
    2026-09-07GitHub Copilot weekly update: Jira integration, Copilot CLI experimental adaptive model routing (Project HydraFusion), VS Code 1.137 agent task scheduling and voice modeB (official Changelog relay verified)
    2026-09-09Codex CLI 0.154.0: GPT-6 Astra enters the model selector and lands on Amazon Bedrock; rollout token budget (cross-thread accounting, balance alerts, abort on exhaustion) brings L6 budget guardrails into the open-source execution stackB (official Changelog relay verified)
    2026-09-10OpenAI Agents API public beta (verified via the official Changelog): explicit pricing of the orchestration layer is zero, revenue is deferred to model and sandbox usage, nine sandbox partners; data residency US-only, ZDR not supportedA (official)
    2026-09-10Cursor Projects (Beta): a coordinator agent that writes no code dispatches parallel sub-agents, hosted on a cloud computer, shared context accumulates with the project, triggered by Slack/scheduled/PR signals — the L3 orchestration layer of AI IDEs begins to be objectifiedA (official Changelog)
    2026-09-11Claude Code v2.1.269: plugin evaluation suite (claude plugin eval, scoring reports) and /output-style; the early-September versions introduce L6 governance capabilities such as organization-level managed MCP, automatic denial of unsupervised headless permissions, and maxEffortLevelA (official)
    2026-09-11GitHub Copilot code-review integrated closed loop: automatic resolve, context-aware commit messages, ensemble review (high severity +47%, medium severity +31%, cost -8%, vendor self-report)B (vendor self-report)
    2026-09-06OpenAI disclosed agent usage data of its research organization: agent workdays / human workdays = 3.1:1, median researcher spending over USD 600 per dayA (official baseline)
    2026-08-22MCP roadmap: agent messaging primitives, unification of HTTP-native transport, and agent identity (DPoP / workload identity federation) as priorities for the next specification cycleA (official)
    2026-08-24小鹏's robotics business completed a first round of over USD 900 million (post-money valuation about USD 6.3 billion, a single-round record for domestic embodied intelligence; multi-source media agreement, no official announcement seen)B (multi-source media)
    2026-09-11超维动力's angel+ round of over RMB 500 million was confirmed by multiple authoritative media sources (led by 祥峰资本) — the previous snapshot's C-level [To be verified] entry is upgraded to B-levelB (multi-source media)
    2026-09 earlyFigure AI's compute partnership with Nscale (initial commitment USD 3.5 billion, planning up to 100,000 Vera Rubin GPUs, Nscale strategic investment in Figure) — supported by an industry weekly, no official announcement seenB [To be verified] (retained)
    2026-09-03—06广州云蝶科技 released the system-level embodied brain RoboForge (built-in Harness module: full-process evidence-chain recording of tasks, conversion of failure samples into iteration material; co-developed with 南洋理工大学; topping Embodied Bench / LaRA is a vendor self-report) — the name "云蝶数据" corrected to 云蝶科技B (南方+ et al.) + C (benchmark data)

    Judgment: this table corroborates two main lines and revises one judgment. First, the managed runtime has turned from judgment into established fact — the OpenAI Agents API public beta (zero pricing for the orchestration layer) and AWS Bedrock AgentCore GA (2026-06) corroborate each other, and with Cursor Projects objectifying the orchestration layer as a first-class object inside the AI IDE, "the carrier form of the orchestration and control layer (L3)" is converging synchronously along three paths: self-built framework → managed API → IDE-built-in object. Second, compute and embodied intelligence are crossing and accelerating — robotics companies take compute scale as a competitive barrier (Figure—Nscale), capital keeps supplying (超维动力, 小鹏), and named products have appeared for "system-level embodied Harness" (云蝶 RoboForge). Revision: the earlier "compute—distribution layer centralization" previously had only rumor-level evidence, now supported at SEC-filing level (NVIDIA—Hugging Face); the relevant formulations in the conclusions chapter (03-Architecture §5.2, 07-Governance and Risk §4.8) were already synchronized in the previous snapshot, with no conclusion-level reversal.

    4.4. Market Size Forecasts

    SourceForecast
    Grand View ResearchThe global generative AI market was about USD 22.2 billion in 2025 and is projected at about USD 324.7 billion in 2033, CAGR 40.8%
    Bloomberg IntelligenceAbout USD 2.3 trillion in 2032

    The two sets of figures differ by nearly an order of magnitude, rooted in different market scopes (models / full stack / AI-enabled services); both are marked and are suitable only as directional citations. The market size of the Harness layer itself: this research found no authoritative measurement; it belongs to [To be filled].


    5. Action Recommendations for Four Roles

    5.1. Developers

    1. Treat AGENTS.md as a "map," not an "encyclopedia": keep it to about 100 lines plus a structured docs/ directory, letting the agent load details on demand, rather than stuffing everything into a giant prompt file.
    2. Build the minimal regression set first, then expand tools: without criteria you cannot judge whether adding or removing tools is effective; have an evaluation set that can decide success or failure first, then talk about the tool ecosystem.
    3. Fewer, clearer tools: following community evidence that "performance is better after removing most agent tools" (the specific case figures are marked [To be verified]), prefer generic structures the model can directly understand (file system, git, standard CLI).
    4. Script all deterministic operations: for any operation where "only code can provide deterministic reliability" (format conversion, validation, export, deployment), wrap it as a script call and prohibit the model from generating it token by token.
    5. Annotate every Harness component with "when it can be deleted": every model upgrade can turn yesterday's clever design into friction; stay lightweight, be ready to discard hardcoded "smart" logic at any time, and save generation trajectories for evaluation and reproduction.

    5.2. Architects

    1. Use the six-layer model for an architecture self-check: confirm layer by layer that L1 context strategy, L2 tool boundaries, L3 orchestration forms, L4 state externalization, L5 evaluation criteria, and L6 governance mechanisms each have a concrete implementation; most systems' weaknesses concentrate in L4 and L5.
    2. Keep protocol selection neutral: prefer MCP-compatible forms for tool access, reserve A2A interfaces for multi-agent coordination, and avoid hardcoding business logic onto a single vendor's private protocol; at the same time prepare alternative paths for "one implementation becoming the default."
    3. Separate the evaluator from the evaluated: an independent Evaluator, multi-dimensional metric values, and hard-threshold scoring; prohibit the system from scoring itself; stay consistent with the separation-of-duties logic of Clause 4.3.1 of GB/T 45654—2025.
    4. Externalize state to the file system and version repositories: do not rely on context accumulation for memory; persist session artifacts, checkpoints, and audit trajectories in a versionable, traceable form.
    5. Reserve integration points for identity systems: domestic products should reserve GB/Z 185—2026 identity-code compatibility, and cross-border collaboration scenarios should reserve A2A Signed Agent Cards verification — the implementation of both identity mechanisms is accelerating.

    5.3. Technology Managers

    1. Write governance red lines as mechanically enforced rules: a prohibition list of irreversible actions, out-of-domain interception, and label write-and-readback verification, implemented as interception and blocking rather than prompt requirements (see Chapter 5 of "07-Governance and Risk" in this whitepaper).
    2. Trade autonomy for sandboxing: Anthropic's official data show that sandboxing reduces permission prompts by 84% and is safer; finer permission boundaries buy fewer human interruptions and a higher ceiling of automation.
    3. Treat trajectory data as an asset to accumulate: the trajectories, evaluation sets, and failure-mode libraries captured by Harness are a moat that model procurement cannot take away; plan trajectory storage, annotation, and reflow from day one.
    4. Watch stability metrics, not throughput metrics: DORA's finding of "throughput up, stability down" reminds managers to include delivery stability, rollback cost, and incident rate in the appraisal baseline for AI adoption.
    5. Govern shadow AI and budget guardrails in parallel: establish an AI asset ledger (AI BOM) and AI telemetry logs to detect unapproved AI use; set budget caps and circuit breakers for tasks and tenants to prevent cost runaway (IBM 2025 data show that about one-fifth of organizations have had leaks due to shadow AI).

    5.4. Regulation and Compliance

    1. Build the management-system skeleton with ISO/IEC 42001 or NIST AI RMF: produce a Statement of Applicability (SoA) or a risk register, mapping the 38 controls (42001) or the four functions (AI RMF) onto internal permission, logging, and evaluation mechanisms; note that 42001 confers no EU AI Act compliance presumption.
    2. Land labeling obligations in the engineering pipeline: in accordance with 《人工智能生成合成内容标识办法》 (effective 2025-09-01) and GB 45438—2025, explicit and implicit labels are written automatically by the export pipeline with readback verification, and label-related logs are retained for no less than six months; the case of 即梦 AI being investigated on 2026-04-28 shows that the export and distribution stages are where regulatory inspections land.
    3. Enforce separation of duties and non-transferability of responsibility: generation and review must not share the same identity (Clause 4.3.1 of GB/T 45654—2025); external statements and internal-control design both take "AI does not reduce human responsibility" as the premise (the 2026-03-05 中注协 guidance, IESBA 2026, and the 最高人民法院's "assisted adjudication" positioning are consistent in baseline).
    4. Build evidence-chain capability: bind each key output to a five-tuple (input snapshot + tool-invocation log + output + human-confirmation record + hash), isomorphic with the duty of explanation in Article 19 of 《生成式人工智能服务管理暂行办法》; the "transfer of burden of proof" on the judicial side (the 2026-03 judgment of the 北京互联网法院) has made the reproducibility of the creative process a key point of offense and defense.
    5. Track the conversion pace of agent identity and auditing standards: the identity-code-related standards of GB/Z 185—2026 are already planned for conversion to mandatory national standards, and the sub-standards for agent auditing and agent trading are under development; for agent systems operating domestically, laying out identity-code compatibility and audit-trail capability in advance is laying out market-access conditions in advance.

    6. Limitations and Open Questions of This Whitepaper

    6.1. Limitations of This Whitepaper

    The conclusions of this whitepaper are constrained by the following four limitations; the scope of application should be delimited accordingly when using them:

    1. Temporal cross-section limitation: all material is as of 2026-09-13. Regulatory texts, standards, and products in the agent field are updated on a monthly basis, and items such as the release date of GB/Z 185—2026 and the EU AI Act timeline (the proposed AI Omnibus adjustments) have conflicting baselines or are in the process of adjustment; when citing, the latest official texts must be re-checked.
    2. Source-level limitation: enterprise evidence on the China side is mostly brokerage research and media relays (Level B), and the annual-report originals could not be traced back item by item; enterprise productivity data (DORA, McKinsey, JetBrains) all come from relays by aggregation sites, and all are marked.
    3. Coverage limitation: this whitepaper is primarily from engineering and governance perspectives, and dedicated regulatory material for some industries is insufficient (e.g., the China-specific regulatory text for medical AI has no article-level source); there is no authoritative measurement of the market size of the Harness layer itself.
    4. Method limitation: this project is a literature survey, without first-hand interviews or experiments; mechanistic judgments such as "post-training coupling between the model and the Harness" rely on vendor official statements rather than independent reproduction.

    6.2. List of Open Questions

    The following questions are those that vendors and researchers have publicly stated remain unsolved, or that this project's judgments still need to verify; they define the agenda of the next generation of Harness. This whitepaper gives no speculative answers and records them faithfully:

    From vendor officials (Level A)

    1. Whether a single general-purpose coding agent is always optimal, or a multi-agent architecture split into specialist agents is better — Anthropic officially concedes "it is currently unclear."
    2. Whether the experience of long-running agents generalizes to other long-cycle tasks such as scientific research or financial modeling — the official position is "the answer is still being explored."
    3. We need Harness coverage and quality evaluation methods analogous to code coverage and mutation testing — publicly proposed on martinfowler.com, with no recognized solution yet.
    4. As the Harness grows, how to keep feedforward control (guides) and feedback control (sensors) in sync without self-contradiction; and when instructions and feedback signals conflict, how far one can trust the agent's trade-offs.

    From this project's judgments (to be verified)

    1. After deep post-training coupling between the model and a specific Harness structure, how will the cost of "swapping the Harness" change — this determines whether the future Harness is replaceable middleware or locked-in infrastructure.
    2. Will the two US–China identity systems (A2A Signed Agent Cards and the GB/Z identity code) be mutually recognized — this determines whether the global agent network is one web or two.
    3. Can the evaluation and update costs of edge Harness be amortized as the toolchain matures — this determines the long-term economics of "data not leaving the domain" scenarios.
    4. Authoritative confirmation of the three baselines for the release date of GB/Z 185—2026 (2026-05-22 / 2026-06-26 / 2026-07-09) — the formal announcements of 中国标准出版社 or the National Standard Information Public Service Platform are required.

    7. Summary

    The judgments of this chapter can be compressed into four sentences:

    Technically, the Harness will get lighter but will not disappear. The model and the Harness are in a co-evolutionary relationship: a stronger model absorbs part of the Harness's duties while adding another part; evaluation methodology is the layer with the lowest current maturity and the highest marginal returns — in the next 12–24 months, the breakthrough is most likely to come not from models but from evaluation.

    On standards, the window is closing. AAIF has established neutral governance, and MCP has settled its evolution mechanism; China has built a systematic agent interconnection standard through the seven parts of GB/Z 185—2026, with the identity code as the core lever, planning conversion to mandatory national standards. The two routes are complementary in the short term and will need mutual recognition at the identity level in the long term.

    On industry, adoption is saturated while trust has not kept up. The gap between an 84% adoption rate and a 3.1% high-trust rate is exactly the market space for Harness; the evidence of "throughput up but stability down" is precisely the problem L5 and L6 should solve.

    On action, each of the four roles has its lever. Developers build criteria first and stay lightweight; architects run a six-layer self-check and reserve identity interfaces; managers mechanize red lines and accumulate trajectory assets; regulation and compliance land in pipelines, enforce separation, and track conversion.

    One-sentence conclusion: the AI Harness is turning from an "engineering trick" into an "engineering discipline," from a "cost center" into a "data asset," and from "vendor-private" into "public infrastructure"; and its next battlefield is evaluation and identity.


    8. Information Gap Statement

    1. Release date of GB/Z 185—2026: the three baselines of 2026-05-22 / 2026-06-26 / 2026-07-09 coexist; this whitepaper presents them side by side, and the body text adopts "H1 2026," pending authoritative confirmation.
    2. International standards for agent interconnection at the ISO/IEC level: no published or project-initiated standard number found; no authoritative information yet.
    3. The AGNTCY project: mentioned only in reviews; no authoritative first-hand material yet.
    4. All figures for DORA 2025 / McKinsey 2025 / JetBrains 2025: from relays by aggregation sites, marked.
    5. Chinese vendor developments (DeepSeek forming a Harness team, 小米 MiMo Code, 灵犀智涌 ROSS): all found only in relays by encyclopedia entries, marked.
    6. Ratio of the Codex CLI Rust rewrite (about 95%): Level B source, marked.
    7. "The market size of the Harness layer itself": no authoritative measurement found; belongs to [To be filled].
    8. Quantitative figures on context degradation and case figures on architecture rework (Manus's five reworks, LangChain's three redesigns, Vercel removing 80% of tools): B/C-level sources, marked.
    9. Figures on the Chinese standardization background (nearly 200 key standards, 146 special-action items): Level B relays, marked.
    10. Suggested directions for supplementary research: group standards from 中国信通院 and AIIA; the OWASP Agentic AI Top 10; IEEE agent standard projects; clauses of the EU AI Act related to autonomous agents.

    9. References

    1. Harness design for long-running application development — Anthropic, 2026. https://www.anthropic.com/engineering/harness-design-long-running-apps
    2. Effective harnesses for long-running agents — Anthropic, 2025. https://www.anthropic.com/engineering/effective-harnesses-for-long-running-agents
    3. Effective context engineering for AI agents — Anthropic, 2025. https://www.anthropic.com/engineering/effective-context-engineering-for-ai-agents
    4. Harness engineering: leveraging Codex in an agent-first world — OpenAI, 2026-02-11. https://openai.com/index/harness-engineering/
    5. Linux Foundation Announces the Formation of the AAIF — Linux Foundation / AAIF, 2025-12-09. https://aaif.io/
    6. Model Context Protocol official site and specification (2026-07-28 edition) — MCP / AAIF. https://modelcontextprotocol.io/specification/2026-07-28/
    7. A year of open collaboration: Celebrating the anniversary of A2A — Google Open Source Blog, 2026-04-16. https://opensource.googleblog.com/
    8. Linux Foundation Launches the Agent2Agent Protocol Project — Linux Foundation, 2025-06-23. https://www.linuxfoundation.org/press/linux-foundation-launches-the-agent2agent-protocol-project-to-enable-secure-intelligent-communication-between-ai-agents
    9. 《人工智能 智能体互联》series of national standards (release coverage) — 人民网, 2026-07-09. https://finance-app.people.cn/n1/2026/0709/c1004-40757059.html
    10. 《人工智能 智能体互联》series of national standards, interpretation — 中国产业经济信息网, 2026. https://cinic.org.cn/xw/zcdt/1643418.html
    11. GB/Z 185—2026 in practice: first batch of agent identity-code nodes issued in the Yangtze River Delta — 中国日报, 2026-09-04. https://cn.chinadaily.com.cn/a/202609/04/WS6a9a6773e4b09a165c788098.html
    12. 2025 Stack Overflow Developer Survey — Stack Overflow, 2025-07-29. https://survey.stackoverflow.co/2025/
    13. Harness engineering for coding agent users — Birgitta Böckeler, martinfowler.com, 2026. https://martinfowler.com/articles/harness-engineering.html
    14. Humans and Agents in Software Engineering Loops — martinfowler.com, 2026. https://martinfowler.com/articles/exploring-gen-ai/humans-and-agents.html
    15. AI Adoption Stats & Trends (DORA / McKinsey / JetBrains aggregate, figures marked) — daily.dev, 2026-07-19. https://daily.dev/agentic-ai-hub/ai-adoption-stats-trends/
    16. NIST AI Risk Management Framework (AI RMF 1.0) — NIST, 2023. https://www.nist.gov/itl/ai-risk-management-framework
    17. 中注协提示会计师事务所在 2025 年年报审计中使用人工智能技术的风险防范 — 中国注册会计师协会, 2026-03-05. https://cicpa.org.cn/xxfb/news/202603/t20260305_65842.html
    18. 《技术不是侵权"挡箭牌" 法院这样认定 AI"盗脸"》— 新华社《经济参考报》, 2026-04-17. http://dz.jjckb.cn/www/pages/webpage2009/html/2026-04/17/content_115180.htm
    19. Sandboxing: a safer and more autonomous approach — Anthropic, 2025. https://www.anthropic.com/engineering/claude-code-sandboxing
    20. SWE-bench official site — Princeton / community. https://www.swebench.com/
    21. Terminal-Bench — Stanford / Laude Institute. https://www.tbench.ai/
    22. OpenAI Codex CLI (open-source repository) — OpenAI. https://github.com/openai/codex
    23. Agent2Agent (A2A) Protocol (open-source repository) — Linux Foundation / Google. https://github.com/a2aproject/A2A
    24. 12-Factor Agents — Dex Horthy / HumanLayer. https://github.com/humanlayer/12-factor-agents