veda.ng
Essays/Towards the Agentic Web

Towards the Agentic Web

How the internet is shifting from a place where humans find information to a platform where autonomous AI agents get things done on your behalf.

Vedang Vatsa·March 16, 2026·13 min read

The internet has gone through two major phases. The first was about reading. Static pages, hyperlinks, directories. You went online to look something up. The second was about participating. Social platforms, user-generated content, real-time interaction. You went online to post, comment, and share. We are now entering a third phase that adds a fundamentally new verb to the mix. You will go online to delegate.

In this phase, the web stops being a place you browse and becomes a system that acts. Book a trip. Research a market. Negotiate a deal. Find the cheapest energy supplier for your home. The agent breaks the task into steps, calls the right services, handles the details, and reports back. The human provides direction. The machine provides execution.

You state a goal and an AI agent figures out how to accomplish it. The web stops being a place you browse and becomes a system that acts.

This is what is being called the Agentic Web.

The Four Phases of the Web

Each era introduced a new verb

Read
Web 1.0
1990s
Static pages, directories, hyperlinks. Users consumed information.
16M users
Write
Web 2.0
2004
Social platforms, user-generated content, real-time interaction.
1B users
Own
Web 3.0
2020
Decentralization, crypto wallets, verifiable data, token economies.
4.9B users
Delegate
Agentic Web
2025
AI agents act on your behalf. The web becomes a system that executes.
5.3B+ users
Diagram showing the evolution from the attention economy to the intention economy

From Attention to Intention

The business model of the current internet runs on attention. Every platform, every feed, every notification is designed to capture your eyes and keep them there. This is the attention economy, and it shaped everything from news headlines to social media algorithms. The more time you spend, the more ads you see. The entire web was built around this incentive.

The Agentic Web inverts that model. Agents do not scroll. They do not get distracted by clickbait. They have objectives, and they pursue them efficiently. A travel agent bot does not care about the booking site's banner ads or loyalty program pop-ups. It queries the cheapest flights, checks availability, and moves on. This shifts the economic logic of the web from engagement to outcomes.

The implications for the advertising industry alone are significant. If a meaningful share of web traffic shifts from human browsers to AI agents, the display advertising model faces structural pressure. Agents do not see banner ads. They do not click sponsored results. They evaluate options based on structured data, not visual persuasion. Companies that depend on attention-based revenue will need to find ways to make their products and services discoverable by machines, not just by people.

Doc Searls coined the term intention economy back in 2006 in a Linux Journal article, describing a world where buyers broadcast their needs and sellers compete to fill them. He launched Project VRM at Harvard's Berkman Klein Center to build the infrastructure. The technology was not ready then. Now it is. Large language models gave agents the ability to understand ambiguous requests. Model Context Protocol (MCP), introduced by Anthropic in November 2024, gave agents a standard way to connect to tools. In December 2025, Anthropic donated MCP to the Agentic AI Foundation (AAIF) under the Linux Foundation, co-founded with Block and OpenAI, making it a vendor-neutral industry standard.

10,000+
Published MCP servers
97M
Monthly MCP SDK downloads
100+
A2A enterprise adopters
5
Major AI platforms on MCP

Every major AI platform (OpenAI, Google, Microsoft, Amazon, and Anthropic) has standardized around MCP. The protocol went from 2 million monthly SDK downloads at launch to 97 million by March 2026. Google released its complementary Agent-to-Agent (A2A) protocol in April 2025 with over 50 launch partners, allowing agents from different vendors to communicate and collaborate. It was transferred to the Linux Foundation in June 2025 under the same AAIF umbrella. By February 2026, over 100 enterprises including Salesforce, Atlassian, PayPal, and consulting firms like Accenture, Deloitte, McKinsey, and PwC had adopted it. These two protocols together, MCP for connecting agents to tools and A2A for connecting agents to each other, form the HTTP layer for the agent era.

MCP Adoption

Monthly SDK downloads (millions)

Nov 2024
2M/ 50
Sep 2025
45M/ 4.5K
Mar 2026
97M/ 10K+

Sources: The New Stack, MCP Ecosystem Registry. Right column: SDK downloads / published servers.

What Makes an Agent Different from a Chatbot

The distinction matters because it changes what computers can do for you.

Chatbot vs. Agent

The distinction that changes what software can do for you

DimensionChatbotAgent
InteractionPrompt → ResponseGoal → Multi-step execution
MemorySession-level onlyPersistent context across tasks
ToolsNone or limited pluginsAPIs, databases, browsers, wallets
AutonomyZero (waits for each input)High (acts independently)
ReasoningSingle-turn inferenceMulti-step planning and self-correction
OutcomeText answerCompleted task (booking, purchase, report)
Error handlingUser must retrySelf-corrects and asks clarifications
The Chatbot Paradigm

A chatbot waits for a prompt and answers it. You type a question, you get a response. The interaction ends there. It operates entirely as a reactive conversational interface, requiring continuous micro-management from the user to achieve multi-step outcomes.

The Agent Paradigm

An agent receives a goal and pursues it across multiple steps. It calls APIs, browses websites, runs code, and queries databases. It remembers context, decides when to ask for clarification, and loops its own reasoning until the human's objective is completed.

The key capabilities are perception (understanding its digital environment), reasoning (breaking a goal into steps), action (executing those steps using tools), and learning (improving from outcomes over time). These are not hypothetical. OpenAI's Operator, powered by its Computer-Using Agent (CUA) model, achieves an 87% success rate on the WebVoyager benchmark for complex browser tasks. Google's Project Mariner, built on Gemini 2.0, uses an Observe-Plan-Act cycle to handle multi-tab browser tasks with the ability to learn workflows from user demonstrations. Startups like Genspark's Super Agent are shipping products that operate this way.

The pace of improvement is measurable. METR (Model Evaluation and Threat Research) tracks a metric called the "task-completion time horizon," which measures the complexity of tasks AI agents can complete autonomously. Their research shows this capability has been doubling every 7 months since 2019. More recent data from 2023 onward suggests the doubling time has accelerated to roughly 4 months. If these trends hold, agents will be independently completing tasks that currently take humans days or weeks within the next few years.

AI Agent Task Horizon

Complexity of tasks agents can complete autonomously (50% success rate)

2019
1.5 min
2020
3 min
2021
7 min
2022
15 min
2023
33 min
2024
1 hr
2025
3 hrs
2026*
8 hrs

Source: METR (Model Evaluation and Threat Research), "Measuring the Frontier AI Task Horizon," March 2025, updated 2026. *2026 figure is extrapolated from most recent doubling trend. Log scale. 50% time horizon = length of task a model completes with 50% success.

This is more than a feature upgrade. It is a change in the relationship between user and software. Instead of operating software, you manage it. You become the strategist, not the operator.

The Web Rewires for Machines

For three decades, the web has been designed for human eyes. Visual layouts, navigation menus, buttons, scrollable pages. All of it optimized for how people see and interact.

Agents do not use the web this way. They work through APIs, structured data, and machine-readable endpoints. A hotel booking agent does not need a photo carousel or a customer review slider. It needs a clean API that returns room availability, pricing, and cancellation terms in a structured format. This creates a powerful economic incentive for businesses to make their services agent-friendly, and a growing number of them are doing exactly that.

The result is likely a dual-use web. Human-friendly interfaces will remain for people who want to browse, compare, and decide themselves. Agent-friendly layers will be added (or already exist as APIs) for automated access. The businesses that make both work well will capture the most value.

This dual-use architecture is already emerging. Shopify launched its Catalog API and Checkout Kit specifically for AI agents. Google's Universal Commerce Protocol (UCP) standardizes how agents discover and purchase products. Companies like Salesforce, Figma, and Asana have deployed remote MCP servers as HTTP endpoints, letting AI agents interact with their platforms programmatically. The shift is not theoretical. It is being engineered.

There is also an interesting side effect. The current web, optimized for human psychology, is full of dark patterns, misleading headlines, and manipulative design. Agents, being goal-driven and logical, are less susceptible to these tricks. They favor sources that are reliable and data that is verifiable. A web built for agents may end up being a more honest web.

The Protocol Stack

The Agentic Web is not a single technology. It is a stack of complementary protocols, each handling a different layer of the interaction between a human's intent and the final execution of a task.

The Agentic Web Protocol Stack

Five layers from user intent to final settlement

Application LayerEnd-user facing agents that execute tasks
OpenAI Operator, Google Mariner, Genspark Super Agent
Coordination LayerAgents discover, communicate, and delegate to each other
A2A (Google → Linux Foundation)
Tool LayerAgents connect to databases, APIs, and services
MCP (Anthropic → Linux Foundation)
Payment LayerAgents transact using stablecoins, cards, and crypto
x402, ACP, MPP
Settlement LayerFinal settlement of value and ownership
Ethereum, Solana, Base

Protocols are not mutually exclusive. MCP and A2A are governed by the Agentic AI Foundation under the Linux Foundation. Payment layer protocols compete and complement each other across different payment rails.

At the top sits the application layer: products like OpenAI Operator, Google Mariner, and Genspark Super Agent that users interact with directly. These agents interpret natural language goals and break them into executable steps.

Below that is the coordination layer. Google's A2A protocol enables agents from different vendors to discover each other, negotiate tasks, and delegate work. A travel agent built by one company can communicate with a hotel booking agent built by another, without either needing to know the other's internal architecture.

The tool layer, powered by MCP, connects agents to the actual services they need: databases, APIs, code execution environments, communication platforms. With over 10,000 published MCP servers covering everything from GitHub to Slack to Salesforce, agents can now access most enterprise software programmatically.

The payment layer handles transactions. Three protocols compete here: Coinbase's x402 for stablecoin micropayments, OpenAI and Stripe's ACP for in-chat card checkout, and Stripe and Paradigm's MPP for multi-rail payments bridging stablecoins, traditional cards, and Lightning. Each optimizes for different use cases, but together they give agents multiple ways to move money.

At the bottom is the settlement layer. Ethereum, Solana, and Base provide final settlement. Stablecoins like USDC from Circle provide the price-stable currency agents need for predictable transactions.

Agents and Crypto

One of the most concrete intersections between AI agents and blockchain is payments. AI agents cannot open bank accounts. They cannot pass KYC (Know Your Customer) checks. They cannot hold credit cards. But they can hold crypto wallets. This makes blockchain a natural payment rail for autonomous software.

Coinbase launched Agentic Wallets in February 2026, the first wallet infrastructure built specifically for AI agents. These wallets allow agents to hold stablecoins like USDC, swap tokens, pay for API services, and execute financial operations without human intervention. The private keys sit inside Trusted Execution Environments with programmable guardrails like spending limits and transaction screening.

107M+
x402 transactions processed
$0.20-0.40
Avg. micropayment size
0
KYC checks required
The HTTP 402 Revival

Central to this is the x402 protocol, built by Coinbase and launched in May 2025, which revives the old HTTP 402 "Payment Required" status code. It allows AI agents to pay for web services automatically using stablecoins, without accounts, without sessions, and without authentication flows. By March 2026, the protocol had processed over 107 million machine-to-machine transactions, most of them micropayments between $0.20 and $0.40 for API calls and digital services. The x402 Foundation was established to keep the protocol open-source and vendor-neutral, with backing from Cloudflare, Circle, Stripe, and AWS.

Coinbase CEO Brian Armstrong and Binance founder Changpeng Zhao have both predicted that AI agents will soon execute more financial transactions than humans. The logic is straightforward. Agents operate at machine speed, handle micro-transactions that are too small for credit card fees, and run around the clock. Traditional payment rails were designed for humans transacting a few times a day. Agent commerce may involve thousands of small payments per hour, buying API calls, data feeds, compute time, and services from other agents.

The agent-to-agent transaction layer is still early, but it is being built on infrastructure that already works. Stablecoins handle the value transfer. Smart contracts handle the rules. Blockchain handles the settlement. The missing piece was the autonomous software that could use all three without human oversight, and that piece now exists.

The Adoption Arc

40%
Enterprise apps with agents by end 2026
$50.3B
AI agents market by 2030
45.8%
Agent market CAGR
56%
Job tasks accelerated by AI

Gartner predicts that by the end of 2026, 40% of enterprise applications will embed task-specific AI agents, up from less than 5% in 2025. In a best-case scenario, Gartner projects agentic AI could drive roughly 30% of enterprise application software revenue by 2035. Grand View Research values the global AI agents market at $50.31 billion by 2030, growing at a 45.8% CAGR. A separate Grand View report sizes the autonomous AI agents market at $70.53 billion by 2030.

The adoption is not abstract. In September 2025, Salesforce CEO Marc Benioff revealed that the company had reduced its customer support workforce from 9,000 to 5,000 employees, citing its Agentforce platform, which was handling roughly 50% of customer interactions with quality scores comparable to human agents. Duolingo stopped using human contractors for tasks AI could handle. A study by OpenAI and the University of Pennsylvania found that large language models can accelerate the completion of roughly 15% of U.S. job tasks without loss of quality. When additional tools are integrated, that figure rises to between 47% and 56%.

Market Size Projections

AI agents market estimates by research firm

Grand View Research$50.3B
AI agents market, 2030CAGR: 45.8%
Grand View Research$70.5B
Autonomous AI agents, 2030CAGR: 42.8%
Dimension Market Research$24.5B
Enterprise agentic AI, 2030CAGR: 46.2%

Gartner: Agentic AI could drive 30% of enterprise software revenue by 2035

Best-case scenario projection. This would represent a fundamental restructuring of how enterprise software is built and sold.

Sources: Grand View Research (May 2025), Dimension Market Research (2025), Gartner (2026). Projections vary by scope definition.

The pattern is not uniform. Financial services leads in production deployments, with 78% of organizations running AI agents in at least one business function. Technology companies follow closely. Retail has hit 53%, driven heavily by demand forecasting and inventory optimization, with 75% of retailers now considering AI agents essential for competitiveness. Healthcare sits at 42%, accelerating in administrative workflows like scheduling and insurance verification while remaining cautious about clinical autonomy. Government and manufacturing lag behind but are scaling.

AI Agent Adoption by Industry

% of organizations with production agent deployments, Q1 2026

Financial Services78%
Fraud detection, algorithmic trading, compliance
Technology75%
Code generation, infrastructure, DevOps
Retail / E-commerce53%
Demand forecasting, inventory, personalization
Healthcare42%
Admin workflows, scheduling, insurance verification
Manufacturing38%
Predictive maintenance, supply chain
Government22%
Citizen services, document processing

Sources: Gartner, Salesmate, PixelBrainy industry surveys, Q1 2026. Figures represent organizations with at least one production-deployed AI agent, not pilot or experimental deployments.

This matches a broader pattern. The AI agent market within Web3 specifically saw its token market value grow from $22 billion in late 2023 to over $55 billion by end of 2024, and it has continued growing through 2025. DeFAI, the fusion of decentralized finance with autonomous agents, is now a real category. Agents are optimizing DeFi strategies, managing liquidity pools, and participating in DAO governance. By 2026, the DeFAI sector has moved past the hype cycle into structural maturity, with projects emphasizing verifiable compute via Zero-Knowledge Machine Learning (ZKML) and autonomous intent-based execution.

Gartner has also warned that over 40% of agentic AI projects are at risk of cancellation by 2027 if companies fail to establish clear ROI, governance, and monitoring frameworks. The technology works. The organizational readiness often does not.

The Infrastructure Layer

The ecosystem of companies building agentic infrastructure has grown rapidly. A few categories stand out.

Infrastructure Landscape

Key players building the Agentic Web

Agent Frameworks
LangChainMost widely adopted agent dev framework
AutoGen (Microsoft)Multi-agent collaboration
CrewAIRole-based agent orchestration
Vertex AI (Google)Enterprise agent platform
ElizaOSCrypto-native agent framework
Identity & Trust
WorldcoinProof-of-personhood biometrics
CivicDecentralized identity verification
KILT ProtocolVerifiable credentials on-chain
Payment Rails
x402 (Coinbase)107M+ micropayments processed
ACP (OpenAI + Stripe)In-chat checkout via Stripe
MPP (Stripe + Paradigm)Multi-rail: stablecoins + cards
Settlement Networks
SolanaHigh-speed, low-cost transactions
Ethereum / BaseSmart contracts, programmable money
Circle (USDC)Price-stable currency for agents

Agent development frameworks include LangChain, AutoGen by Microsoft, CrewAI, Vertex AI by Google, and ElizaOS. These let developers build, test, and deploy agents with features like multi-agent collaboration, memory management, and tool integration. On the no-code side, Virtuals Protocol pioneered agent tokenization, letting users create and launch agents without writing code.

Identity and trust systems are critical as agents take on sensitive tasks. Worldcoin provides proof-of-personhood. Civic offers decentralized identity verification. KILT Protocol provides a blockchain-based framework for verifiable credentials. These systems authenticate agents and prevent fraud in high-stakes scenarios like financial management and healthcare.

Settlement networks provide the rails for agent transactions. Solana handles high-speed, low-cost payments. Ethereum supports smart contracts and programmable transactions. Fetch.ai integrates blockchain with AI specifically for autonomous agents. Stablecoin issuers like Circle (USDC) and Tether (USDT) provide the price-stable currency that agents need for predictable transactions.

Data marketplaces like Ocean Protocol and Snowflake Marketplace let agents buy and sell verified datasets. A financial planning agent might purchase market analysis data. A logistics agent might access real-time shipping information. The quality and availability of data will increasingly determine how well agents perform.

The Security Landscape

The security risks of autonomous agents are not theoretical. They are documented and growing.

In November 2025, Anthropic confirmed that a Chinese state-sponsored group weaponized Claude Code to autonomously perform 80 to 90 percent of tactical operations (reconnaissance, vulnerability discovery, and data exfiltration) in attacks against 30 global targets across finance, manufacturing, and government. In January 2026, researchers studying a simulated social network of 770,000 autonomous agents observed agents performing prompt injection attacks against each other within days, exacerbated by a database misconfiguration. A vulnerability in Microsoft 365 Copilot (CVE-2025-32711, dubbed "EchoLeak") allowed a single crafted email to trigger automatic data exfiltration without any user interaction.

Agent Security Threat Landscape

Known attack vectors and documented incidents, 2025-2026

ThreatSeverityImpactReal-world example
Indirect prompt injectionCriticalData exfiltration without user knowledgeCVE-2025-68143: Anthropic MCP server RCE via README
Excessive agencyCriticalUnauthorized system actions at scale700+ org breach via cascaded chatbot integration
Memory poisoningHighPersistent false beliefs in agent context"Sleeper agent" scenario: policy override attacks
Cascading failuresHighChain reaction across multi-agent systems770K agent simulation: agents attacking each other within days
Supply chain attacksHighBackdoors in agent frameworks and pluginsBackdoored packages in AI development libraries
Agency abuseMediumAgent executes technically permitted but unintended actionsDatabase deletion, fund transfers from ambiguous instructions

Sources: Anthropic disclosure (Nov 2025), RWNY security research (Jan 2026), SC World, Palo Alto Networks, Stellar Cyber. Examples are documented incidents, not hypothetical scenarios.

The threat categories break down into six areas. Indirect prompt injection, where malicious instructions are hidden in data the agent processes, remains the primary attack vector. Excessive agency, where agents are granted overly broad permissions, creates blast radius problems when a single agent is compromised. Memory poisoning introduces false information into an agent's persistent context. Cascading failures propagate malicious actions across multi-agent systems faster than humans can intervene. Supply chain attacks exploit vulnerabilities in agent frameworks and plugins. And agency abuse, where an agent executes technically permitted but unintended actions (like deleting a database from an ambiguous instruction), represents an emerging category.

Security and Sandboxing

An agent with access to your email, calendar, bank account, and crypto wallet is a very attractive target for attackers. Zero-trust architectures, robust permissioning systems, and sandboxed execution environments are not optional features. They are fundamental requirements. The security community is shifting from preventing prompt injection to mitigating "agency abuse," treating AI agents as non-human identities (NHIs) that require the same governance as human employees.

What Needs to Go Right

An agent told to "find me a cheap flight" might book a 36-hour journey with three connections. A good agent asks what you actually mean. A bad one optimizes for the literal instruction. This is the alignment problem at the scale of daily errands, and it will frustrate millions of people before the tooling matures.

Platform concentration is the structural risk. MCP and A2A are under the Linux Foundation, which is good. But the application layer (OpenAI, Google, Anthropic) is controlled by three companies. If agents become the primary interface to digital services, those three companies control the access point. Web2 created the same problem with search and social feeds. This repeats it one layer deeper.

Liability has no answer. When an agent misbehaves, the blame chain runs through the user, the agent developer, the model provider, the MCP server operator, and the payment protocol. No legal framework currently assigns responsibility across that stack. The EU AI Act addresses some of it. The US has not started.

The jobs question is already playing out. Salesforce cut 4,000 support roles. Duolingo dropped human contractors. The pattern: structured, repeatable digital tasks (support tickets, data entry, scheduling, invoice processing) are the first to go. The new jobs are in building and auditing the agents: prompt engineering, orchestration, AI infrastructure. Whether those new roles absorb the displaced ones is not guaranteed.

Where This Is Heading

The protocols are live. The agents are shipping. What remains is speed and distribution.

$10.9B
AI agent market in 2026
Industry surveys
65-75%
Large orgs using or piloting agents
40%
B2B interactions via agents by end 2026
Industry analysts
87%
OpenAI Operator success rate
WebVoyager benchmark

Adoption will be uneven. Finance and tech are already deep in. Healthcare and government will move slower. Gartner's warning that 40% of agentic projects risk cancellation by 2027 says the bottleneck is organizational readiness, not technology.

The web is moving from something you interact with to something that acts for you. The open question is not whether, but who controls the infrastructure when it does.

Key Takeaway

The agentic web is the structural transition from a web designed for human attention to one designed for machine intention. AI agents interact through APIs, structured data, and semantic metadata rather than visual interfaces. The infrastructure requirements include machine-readable content, cryptographic verification, standardized agent-to-agent protocols (MCP, A2A), and governance frameworks for autonomous agent behavior. The market is growing at 33-46% annually with 79% enterprise adoption. The open question is whether the agentic web produces a more honest, efficient digital commons (agents favor reliable data over clickbait) or a more concentrated one (whoever controls the orchestration layer controls the access point).