Claude
Founders argue that building proprietary agent infrastructure stalls early product validation, but scaling high-fanout workflows requires managed platforms to deliver batch pricing and tiered model routing to remain viable.
AI-assisted summary of How founders build on Claude Managed Agents — original source. Check the original for full context.
Source published:
Key ideas
- Startups like Wispr, Actively, and Pendo launched production-ready agent features in as little as one day to two weeks by adopting Claude Managed Agents instead of engineering proprietary orchestration harnesses. (0:07)
- Wispr guards user trust by utilizing Managed Agents' Outcomes feature with isolated context windows, validating briefs against objective rubrics and suppressing outputs entirely if candidate text fails verification. (2:14)
- Actively employs a two-tier architecture where a supervisory 'Watchtower' agent dynamically writes code to fan out analytical queries across 500 dedicated per-account agents to aggregate executive pipeline forecasts. (18:43)
- Founders cite cost attribution and the lack of native asynchronous batch processing as primary friction points, noting that scheduled batch execution could slash non-urgent background agent costs by 50% to 75%. (28:48)
Detailed notes
## Background Published on YouTube by Claude on September 8, 2026, this panel features three founders from Wispr, Actively, and Pendo discussing how they build and scale autonomous agent systems using Claude Managed Agents. The discussion focuses on practical production realities, including outcome verification, org-wide memory, code sandboxing, evaluation strategies, and the operational calculus of build versus buy.
## TL;DR Founders from Wispr, Actively, and Pendo share how adopting Claude Managed Agents enabled them to ship complex features—such as pre-meeting briefs, cross-account sales aggregations, and self-healing telemetry pull requests—in days to weeks rather than months. They detail critical architecture patterns, including decoupling worker agents from rubric-driven verifiers in clean context windows, sandboxing dynamic code execution, and managing long-term memory across individual accounts versus organizational workflows. The group tracks the evaluation lifecycle from early 'vibes-based' iteration to regression suites derived from real customer traces, emphasizing the difficulty of evaluating mutable, stateful tools. Finally, they weigh the economics of managed platforms against proprietary harnesses, calling for finer-grained cost levers, batch pricing tiers, and sandbox pre-warming to mitigate latency.
## Atmosphere & style The panel carries a candid, pragmatic, and unpretentious engineering tone, feeling like an authentic peer-to-peer post-mortem among founders trading notes from the production trenches. Conversations move briskly through technical nuance without marketing gloss, with speakers laughing off common industry headaches like messy Salesforce schemas and the sheer absurdity of attempting to mock an entire customer Slack workspace. The dynamic is collaborative and grounded, balancing enthusiasm for rapid prototyping speed with hard-nosed scrutiny around token attribution, unexpected stylistic model quirks, and production costs.
## Bulletin - [00:07](https://www.youtube.com/watch?v=hm8NzEd5io0&t=7s) Startups like Wispr, Actively, and Pendo launched production-ready agent features in as little as one day to two weeks by adopting Claude Managed Agents instead of engineering proprietary orchestration harnesses. - [02:14](https://www.youtube.com/watch?v=hm8NzEd5io0&t=134s) Wispr guards user trust by utilizing Managed Agents' Outcomes feature with isolated context windows, validating briefs against objective rubrics and suppressing outputs entirely if candidate text fails verification. - [18:43](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1123s) Actively employs a two-tier architecture where a supervisory 'Watchtower' agent dynamically writes code to fan out analytical queries across 500 dedicated per-account agents to aggregate executive pipeline forecasts. - [28:48](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1728s) Founders cite cost attribution and the lack of native asynchronous batch processing as primary friction points, noting that scheduled batch execution could slash non-urgent background agent costs by 50% to 75%.
## Key takeaways - [12:13](https://www.youtube.com/watch?v=hm8NzEd5io0&t=733s) Building a custom agent harness is only justifiable when low-level execution mechanics constitute the core differentiating IP of the product; otherwise, doing so is premature optimization. - [02:14](https://www.youtube.com/watch?v=hm8NzEd5io0&t=134s) In proactive assistant workflows, delivering a false-positive brief damages customer trust far more than showing no information at all. - [05:16](https://www.youtube.com/watch?v=hm8NzEd5io0&t=316s) Decoupling verifier agents into isolated context windows prevents evaluation bias from contaminated worker reasoning traces and enables authentic quality gating. - [06:52](https://www.youtube.com/watch?v=hm8NzEd5io0&t=412s) Actively overcomes inconsistent Salesforce schemas and deprecated fields by querying users interactively to learn custom definitions and persisting them into organization-wide memory. - [10:38](https://www.youtube.com/watch?v=hm8NzEd5io0&t=638s) Pendo offloaded sandbox container management to Managed Agents to securely inspect customer source code and submit automated pull requests without exposing internal infrastructure to arbitrary execution vulnerabilities. - [16:03](https://www.youtube.com/watch?v=hm8NzEd5io0&t=963s) Offloading undifferentiated mechanics like prompt caching and context window compaction frees engineering teams to focus entirely on user retention and qualitative output. - [16:03](https://www.youtube.com/watch?v=hm8NzEd5io0&t=963s) Early agent iteration benefits from qualitative, vibes-based testing to establish product stickiness before formalizing quantitative offline eval suites. - [17:49](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1069s) Actively deploys a hybrid memory model, retaining proprietary control over long-lived, multi-year account histories while relying on Managed Agents for shared organizational rules and rep preferences. - [21:43](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1303s) Pendo pairs source code sandboxing with live application telemetry to create self-healing software loops that detect conversion funnel drops and autonomously submit remediation pull requests. - [26:41](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1601s) Evaluating agents against mutable state environments like live Slack channels is inherently brittle, as external state drift breaks offline assertions unless teams undertake complex mocking. - [28:13](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1693s) When transitioning between foundational model generations, teams should prioritize detecting new stylistic quirks and distinct failure modes over micro-optimizing prompts for marginal intelligence gains. - [31:13](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1873s) High-fanout architectures require Anthropic to provide tiered pricing controls, enabling a frontier model orchestrator to delegate sub-tasks to cheaper, lightweight models across hundreds of accounts. - [33:33](https://www.youtube.com/watch?v=hm8NzEd5io0&t=2013s) Claude Managed Agents provide the highest leverage for workflows that demand peak frontier reasoning, can tolerate multi-minute runtimes, and prioritize rapid feature validation over low-level infrastructure control.
## Detailed walkthrough ### [00:07](https://www.youtube.com/watch?v=hm8NzEd5io0&t=7s) How Wispr, Actively, and Pendo Deploy Managed Agents
The conversation opens with three founders explaining how they have integrated Claude Managed Agents into their core products across different business domains. Sahaj kicks off by describing how Wispr approaches meetings. While almost everyone in the industry narrowly focuses on what happens during a meeting, Wispr views meetings as a three-stage journey: preparation before the conversation, facilitation during the call, and execution on follow-ups afterward. Using Managed Agents, Wispr built pre-meeting briefs to ensure users walk into discussions prepared and post-meeting task automation to handle the downstream work automatically.
Mihir explains that Actively provides autonomous agents for enterprise sales teams. Actively's baseline architecture assigns a dedicated agent to every single customer account, continuously accumulating memory and determining the next steps to advance deals. However, sales leaders and representatives also need macro-level cross-account intelligence—answering questions like which top five accounts a rep should prioritize each morning or which deals a sales manager should include in next quarter's forecast. To solve this, Actively built "Watchtower," an aggregation, roll-up, and cross-account reporting agent requiring completely different tools from the single-account agents. Leveraging Managed Agents, the team built and shipped Watchtower in just two weeks, turning it into one of their most-used features and an underlying engine across the product.
Rounding out the panel, Todd describes Pendo's product analytics platform, which instruments customer applications to track user behavior and provide product improvement insights. As software development cycles have accelerated, maintaining accurate instrumentation has become painful because code changes cause analytics tracking to drift away from reality. To fix this, Pendo introduced an agent sitting directly in front of their platform. Using Managed Agents, this agent snapshots customer codebases, correlates what the code is doing with actual telemetry in the running application, and proactively surfaces insights alongside automated code fixes.
```mermaid flowchart TD accTitle: Claude Managed Agents Across Wispr Actively and Pendo accDescr: High-level overview of how Wispr, Actively, and Pendo implement Managed Agents across meetings, sales workflows, and codebase telemetry.
subgraph Wispr["Wispr: Meeting Lifecycle"] W1["Pre-Meeting Briefs"] --> W2["Live Call Support"] --> W3["Post-Meeting Task Automation"] end
subgraph Actively["Actively: Sales Intelligence"] A1["Per-Account Agents"] --> A2["Watchtower Engine"] A2 --> A3["Cross-Account Roll-Ups & Forecasting"] end
subgraph Pendo["Pendo: Analytics Drift"] P1["Codebase Snapshot"] --> P2["Runtime Application Telemetry"] P2 --> P3["Proactive Insights & Code Fixes"] end ```
- **Wispr's meeting paradigm**: Expands beyond live audio transcription to automated pre-meeting briefs and post-call task execution. - **Actively's Watchtower**: Shipped in two weeks on Managed Agents to support cross-account roll-ups, rep daily prioritization, and quarterly pipeline forecasting. - **Pendo's telemetry agent**: Bridges codebase snapshots with production analytics to detect tracking drift and submit fixes.
---
[02:14](https://www.youtube.com/watch?v=hm8NzEd5io0&t=134s) Outcome Verification and Rubric-Driven Briefs at Wispr
When asked about the features within Managed Agents that matter most, Sahaj highlights "Outcomes." In Wispr's pre-meeting briefs, the agent synthesizes who the user is meeting, why they are meeting, what prior agreements were established, and contextual notes from previous interactions weeks prior. However, when an agent hallucinates or confuses identities, the feature rapidly becomes counterproductive. If the agent matches the wrong person—such as conflating two individuals named Tom—the user clicks the profile, reads false pre-context, and enters the meeting completely disoriented.
Because false positive information is actively destructive, Wispr relies on Managed Agents' Outcomes feature to evaluate outputs against an objective rubric. The Outcomes system functions as an independent evaluator, validating whether the brief hit the target criteria and verifying source attribution before anything is presented in the user interface. If the generation fails the rubric, Wispr intentionally suppresses the brief entirely: showing no brief at all is far better for product trust than presenting incorrect pre-reads.
The rubric itself evaluates both objective facts and human consumption ergonomics. Objectively, it verifies deterministic data points, such as checking whether the retrieved LinkedIn profile matches the exact person attending the calendar event. Ergonomically, it scores readability and scan-ability. A rambling five-page document is useless right before a meeting. The rubric forces the agent to organize information in a strict progressive structure—first identifying who the person is, then explaining why the meeting is happening, and finally outlining action items. The agent hill-climbs against these UX-centric rubric criteria until the brief is verified or discarded.
- **The false positive penalty**: Delivering inaccurate pre-context (e.g., pulling the wrong person named Tom) damages user trust more than displaying no pre-read at all. - **Objective rubric verification**: Validates exact matches between calendar attendees and fetched external profiles like LinkedIn. - **UX and readability scoring**: Penalizes overly dense text to prevent multi-page briefs, enforcing a scannable format ordered by attendee identity, meeting purpose, and expected outcomes. - **Hill-climbing against rubrics**: Allows the agent loop to iterate against explicit presentation criteria prior to serving output to users.
---
[05:16](https://www.youtube.com/watch?v=hm8NzEd5io0&t=316s) Decoupled Evaluators and Independent Context Windows
Addressing how verification works in practice, Sahaj explains the operational runtime and ground-truth mechanics of Wispr's briefs. Wispr runs its brief generation roughly 24 hours before a scheduled meeting. This extensive buffer provides ample time for the system to run agent workflows, pull external information, and complete evaluation loops without tight latency pressures.
```mermaid flowchart LR accTitle: Wispr Decoupled Verifier Architecture accDescr: Diagram illustrating Wispr's separation of the worker agent trace from the verifier agent using independent context windows.
subgraph Generation["Generation Window"] A["Calendar & Email Data"] --> B["Worker Agent"] B --> C["Candidate Brief"] end
subgraph Verification["Independent Verification Window"] C --> D["Verifier Agent"] E["External Sources (LinkedIn)"] --> D D -->|Pass| F["Render to User"] D -->|Fail| G["Suppress Output"] end ```
The critical architectural advantage in Managed Agents is the strict separation between the worker agent that performs the task and the verifier agent that assesses the work. Rather than evaluating candidate text inside the worker agent's contaminated execution trace, Outcomes uses an entirely independent context window. Just as a human sales rep reviews an email thread, calendar invite, and LinkedIn profile to intuitively spot mismatches—noticing when something "does not look like the right person"—the independent verifier agent examines the primary sources and candidate output with clean reasoning.
This isolation guarantees that quality assessment is an authentic deployment gate. Wispr does not always demand that the agent loop continuously until perfection is reached; instead, they take advantage of the verifier's judgment to silently swallow unverified insights. Sahaj summarizes their core operating philosophy for proactive assistance: "Help when you can and do not cause harm or annoyance."
- **24-hour lead time**: Brief workflows spin up a full day prior to calendar events, removing real-time generation latency constraints. - **Clean context verification**: The verifier agent operates in an isolated context window, avoiding bias from the worker agent's chain-of-thought traces. - **Heuristic mismatch detection**: Mirroring human intuition, the verifier compares calendar invites, email exchanges, and LinkedIn metadata to identify subtle identity mismatches. - **Graceful suppression**: The platform drops briefs when confidence falls below the rubric threshold rather than risking annoying or confusing the user.
---
[06:52](https://www.youtube.com/watch?v=hm8NzEd5io0&t=412s) Org-Wide Memory, Salesforce Messiness, and Watchtower's Agent Fan-Out
Mihir details how Actively approaches memory and cross-account reasoning in sales environments. Enterprise sales data is notorious for idiosyncratic nomenclature and inconsistent business logic: every company calculates deal ownership differently, runs pipeline forecasting according to custom criteria, and uses heavily customized CRMs. Mihir notes that virtually every company's Salesforce setup contains "30 different fields that mean the same thing that were deprecated," making standardized prompting useless out of the box.
Instead of requiring long, manual administrative setup during onboarding, Actively uses interactions with the sales team to learn these unique concepts dynamically. When a user first asks a query—such as asking which deals should be forecasted for the upcoming quarter—the system asks clarifying questions, maps the company's internal definitions, and stores that logic in an organization-wide memory store. Once stored, those learned rules persist across the entire organization, improving answers for every team member without manual configuration.
```mermaid flowchart TD accTitle: Actively Watchtower Fan-Out Execution Flow accDescr: Flowchart showing how Watchtower processes complex queries by writing code, filtering accounts, fanning out tasks to per-account agents, and rolling up results.
Q["User Query: 'Forecast deals for next quarter'"] --> W["Watchtower Agent"] M[("Org-Wide Memory")] <-->|Business Logic & Definitions| W W --> C["Dynamic Code Execution & Tool Calling"] C --> F["Candidate Filter (e.g., 500 Deals)"]
subgraph FanOut["Fan-Out Architecture"] F --> A1["Account Agent 1"] F --> A2["Account Agent 2"] F --> A3["Account Agent N"] end
A1 --> R["Roll-Up Aggregation"] A2 --> R A3 --> R R --> Out["Consolidated Forecast Report"] ```
Beyond memory, Managed Agents enables Watchtower to handle deep workloads across hundreds of accounts through dynamic code generation and programmatic tool calling. When a manager asks complex forecasting questions across 500 deals, Watchtower does not attempt to evaluate everything in a single context window. Instead, it generates and executes code to filter the candidate pool, programmatically fans out specific analytical tasks to the dedicated agents running on individual customer accounts, and rolls up the findings into a consolidated answer. For an account executive managing a book of 100 accounts, this creates an operational structure where a personal team of 100 dedicated agents works in parallel under the orchestration of Watchtower.
- **Messy CRM schemas**: Solves the common enterprise hurdle of deprecated, duplicated Salesforce fields without requiring tedious manual onboarding configuration. - **Clarification and org-wide memory**: Dynamically learns company-specific sales definitions (e.g., deal stages, ownership boundaries) via user Q&A and persists them across the whole company. - **Dynamic code generation**: Watchtower writes and executes code at runtime to handle complex programmatic filtering over hundreds of accounts. - **Fan-out orchestration**: Divides macro-level questions by delegating account-level deep dives to individual per-account agents and aggregating the responses back up. - **Account executive agent fleets**: An account executive with 100 assigned accounts is effectively backed by a team of 100 persistent, dedicated agents feeding into Watchtower.
[09:17](https://www.youtube.com/watch?v=hm8NzEd5io0&t=557s) Cross-Account Memory and the Two-by-Two Matrix
The conversation opens with an exploration of how agents collect and process intelligence over time. When an account executive interacts with the system, the platform passively gathers details about individual user habits and broader organizational workflows. The host points to Actively's Watchtower product, asking how it synthesizes distributed memory across an entire fleet of agents—a background consolidation process likened to "dreaming," where the system combs through fragmented learnings to surface actionable strategic insights.
The memory architecture breaks down into two distinct layers. First, every customer account has a persistent agent that runs continuously throughout the account's entire lifecycle. This agent establishes an exhaustive historical log while extracting foundational concepts that can later be rolled up. Second, there are organizational concepts that emerge only when analyzing activity across multiple accounts—such as company-wide forecasting mechanics or internal operational norms. While cross-account insights may not be relevant to an individual sales rep managing a single prospect, they are vital for Watchtower's executive overview.
```mermaid flowchart TD accTitle: Two-by-Two Memory Architecture for Sales Agents accDescr: Flow showing how account-specific memory and cross-account memory feed into individual interactions and the Watchtower product.
subgraph AccountLevel["Account-Level Scope"] direction TB A1["Persistent Account Agent"] -->|"Tracks full lifecycle"| A2["Account Context & Deal History"] end
subgraph OrgLevel["Cross-Account Scope"] direction TB B1["Org-Wide Processes"] B2["Forecasting Conventions"] B3["Field Definitions & Preferences"] end
subgraph ProductSurfaces["Product Consumption"] direction TB W["Watchtower (Executive Overview)"] Rep["Account Executive Workflow"] end
A2 -->|"Informs directly"| Rep A2 -->|"Extracts roll-up concepts"| B1 B1 --> W B2 --> W B3 --> W ```
This model forms a conceptual two-by-two matrix spanning account-level versus cross-account memory on one axis, and user-level versus organization-level memory on the other. Capturing intelligence across all four quadrants allows the platform to enrich different layers of the product dynamically.
- **Account vs. Cross-Account:** Individual account agents maintain perpetual context for specific deals, while cross-account processes aggregate high-level operational trends across the entire pipeline. - **User vs. Org Level:** The system separates bespoke rep preferences from rigid organizational rules and forecasting models.
---
[10:38](https://www.youtube.com/watch?v=hm8NzEd5io0&t=638s) Sandboxing Code Snapshots and Pull Requests at Pendo
Todd turns to Pendo's implementation of sandboxing within Claude Managed Agents. In Pendo's architecture, the agents snapshot customer source code to detect tracking issues, recommend fixes, and propose code updates. Sandboxing is non-negotiable in this workflow; pulling third-party code into an execution environment exposes proprietary logic, secrets, and environment tokens. Securing this pipeline requires tight control over which tools can touch the codebase, what data payloads get passed into the model, and what terminal actions are authorized. The ultimate output of an agent interaction is often creating a pull request and pushing it directly to a customer's git repository.
Building and maintaining custom sandboxing infrastructure quickly became a distraction. While Pendo initially experimented with a homegrown sandbox, defending against every edge case and security vulnerability proved exhausting. Security and isolation were not their core value proposition—the sandbox simply needed to work flawlessly and earn immediate trust from both self-serve SMBs and rigorous enterprise security teams. Offloading this layer to Managed Agents allowed Pendo to reach enterprise-grade isolation without stalling product development.
Pendo relies on two distinct operational cadences for its agent sandboxes: - **Overnight Batch Sessions:** Scheduled cron jobs run during off-peak hours to crawl source code and analyze macro-level anomalies, such as sweeping product funnel changes or broken tracking logic across massive repositories. - **Interactive Real-Time Sessions:** Low-latency queries triggered when an end user asks a direct question. The agent inspects the code in real time, treating the repository as the authoritative ground truth to generate an accurate, verified answer.
---
[12:13](https://www.youtube.com/watch?v=hm8NzEd5io0&t=733s) The Build vs. Buy Calculus: Core Competency vs. Harnesses
The host frames the broader architectural debate: when should an engineering team roll its own agent harness versus adopting an off-the-shelf platform like Managed Agents? Wispr's founder argues that the decision hinges entirely on whether the execution harness itself represents the core competency of the product. When Wispr developed its "briefs" feature, the execution harness was merely an implementation detail. End users cared about the quality and relevance of the synthesized meeting briefs, not the custom plumbing underneath. Conversely, if Wispr were building a real-time, voice-driven Jarvis system, the proprietary harness might represent the foundational IP and capabilities of the company.
The calculation comes down to trading control against cost and speed: if an infrastructure component does not directly define the differentiated quality of your product, you should buy it. Todd reinforces this logic from the vantage point of an early-stage startup. In the initial phases of customer discovery and validation, the singular mandate is reaching product-market fit and delivering a 10x improvement over legacy solutions. Founders cannot afford to spend their time masquerading as infrastructure engineers when they need to iterate on user value.
- **Differentiating IP:** Custom harnesses are worth building only if the low-level orchestration mechanics create an unreplicable product experience. - **Future Re-evaluations:** Companies may eventually outgrow managed solutions if granular operating costs or bespoke performance profiles necessitate deep, fine-grained control, but building early is almost always premature optimization. - **Execution Speed:** Speed of validation trumps architectural perfection during early iteration loops.
---
[14:15](https://www.youtube.com/watch?v=hm8NzEd5io0&t=855s) From Prototypes to Scale: Days to Ship, Weeks to Roll Out
The founders compare notes on their rollout timelines. Todd recounts how Pendo previously ran an internal agent harness, but the cracks showed quickly under real customer loads. Rather than undertaking an extensive, painful rewrite to address lurking edge cases, Pendo ran a head-to-head bake-off against Claude Managed Agents. The managed implementation took only a few days to stand up in development, and within a few weeks, Pendo migrated its entire production workload over to the managed harness.
Wispr experienced a similarly dramatic acceleration when constructing its meeting assistant. The team shipped a functioning v1 prototype in a single day. Over the subsequent weeks, they expanded the underlying user base by 100x to 1,000x, spending just a few additional days tuning the infrastructure. The vast majority of their engineering energy was spent figuring out what users actually wanted through rapid cycles of internal dogfooding, external user testing, and prompt tweaking.
When iterating inside Managed Agents, the primary development surfaces involve refining system prompts, tuning custom tool definitions, and perfecting multi-step orchestration loops:
```mermaid flowchart LR accTitle: Wispr Orchestration and Information Retrieval Loop accDescr: Sequential flow showing how Wispr iterates over search, retrieval, ranking, and surfacing to produce meeting briefs.
S["Search"] --> R["Retrieval"] R --> RK["Ranking"] RK --> M["Multi-Source Orchestration"] M --> SF["Surfacing to User"] ```
- **Search and Retrieval:** Calibrating when the agent queries specific sources versus drawing on active context. - **Ranking and Pruning:** Determining which snippets of retrieved data are relevant before passing them into the reasoning prompt. - **Cross-Source Orchestration:** Aligning data pulled across heterogeneous workspaces into a single, cohesive brief.
---
[16:03](https://www.youtube.com/watch?v=hm8NzEd5io0&t=963s) Vibes-Based Iteration, Claude Code, and Prompt Caching
Actively saw a similarly rapid ramp-up with Watchtower: the feature went from an initial whiteboard concept to paying customers in just two weeks, with the team dogfooding working builds within the first seven days. By outsourcing harness mechanics like context window compaction, thread persistence, and prompt caching to Managed Agents, the team focused exclusively on the qualitative output: when an account executive walks into an upcoming meeting, what is the single most critical insight they must see? Using structured outcomes features allowed the team to enforce strict guarantees on information architecture while iterating rapidly on prompts.
This sparks an aside about the lifecycle of agent evaluation. The host and founders reference the early development of Claude Code, which initially launched without formal quantitative evals, relying instead on subjective, "vibes-based" iteration. The panel agrees that in the earliest stages of an agentic product, obsessive evaluation suites are counterproductive: "If the thing is not sticky, no amount of evaluation is going to make the thing sticky. You got to figure out how to make it sticky first." Once intuitive, vibes-based testing yields genuine user retention, teams must quickly construct rigorous evals to avoid breaking functionality during future iterations.
- **Managed Infrastructure Wins:** Critical cost-saving mechanics like prompt caching work out of the box without manual cache-key management. - **Context Compaction:** The managed harness automatically compacts context windows behind the scenes, freeing developers from token housekeeping. - **Vibes to Evals Progression:** Use qualitative, intuitive testing to discover an engaging, sticky user loop, then lock it down with quantitative evals to scale safely.
---
[17:49](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1069s) Managing Long-Lived Account Memory vs. Org-Level Context
The conversation circles back to the practical realities of production memory systems. Memory is notoriously tricky to implement cleanly without performance degradation or hallucinations. The Actively founder details why they maintain a hybrid model between bespoke internal storage and Claude Managed Agents' native memory features.
For core account-level intelligence, Actively retains proprietary control. Because an account agent persists indefinitely across a multi-year sales lifecycle, the context accumulated on an account is deep, highly detailed, and prone to corruption if left unpruned. To keep this perpetual record queryable and performant, Actively builds custom indexing layers and validation checks around account history. In contrast, they leverage Managed Agents' built-in memory capabilities for the fluid, shared context that surrounds the organization: mapping what specific CRM fields mean, internal business conventions, and individual rep working preferences.
[18:43](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1123s) Managed Memory and the Multi-Agent "Watchtower" Architecture
For software companies building AI tools, commoditized backend plumbing needs to function reliably without requiring bespoke reinvention. As one founder explains, their core mission is fundamentally to "make tokens useful for salespeople," which depends on user experience, product surface area, and thoughtful workflows rather than maintaining infrastructure. Claude Managed Agents allowed them to stand up a production system in just two weeks, and several months later, they have felt zero need to migrate off the platform because offloading managed memory freed their team to concentrate on features that drive immediate customer value.
The technical setup relies on a two-tier agent topology. At the base layer, individual account agents run outside of Claude Managed Agents on proprietary infrastructure, each maintaining independent memory for a specific customer account. Above this fleet sits a supervisory Claude Managed Agent known as the "Watchtower." If an account executive (AE) managing 100 accounts asks, *"What are the five accounts I need to work on today?"*, Watchtower dynamically synthesizes two separate inputs: it writes code on the fly to fan out queries against the account-level agent memories, and it combines those findings with higher-level user preferences and organizational playbooks stored directly in Claude's managed memory. This architecture naturally scales from individual ICs up to sales leadership; a sales manager overseeing five AEs effectively monitors 500 accounts through the exact same system.
```mermaid flowchart TD accTitle: Watchtower Cross-Account Query Flow accDescr: An AE queries the Watchtower agent, which combines organizational memory with account memories via fan-out code execution.
subgraph UserLayer ["User Interface"] AE["Account Executive / Sales Leader"] end
subgraph WatchtowerSystem ["Claude Managed Agent: Watchtower"] WT["Watchtower Agent"] MM[("Managed Memory\n(Org Priorities & AE Preferences)")] end
subgraph AccountFleet ["Independent Account Agents"] direction LR A1[("Account 1 Memory")] A2[("Account 2 Memory")] AN[("Account N Memory")] end
AE -->|"Query: Top accounts to work today?"| WT WT <-->|"Read user preferences & org playbook"| MM WT -->|"Generates dynamic code & queries"| AccountFleet A1 -.->|"Telemetry & history"| WT A2 -.->|"Telemetry & history"| WT AN -.->|"Telemetry & history"| WT WT -->|"Ranked recommendations"| AE ```
- **Speed to delivery**: The entire Watchtower cross-account agent was built and operational within two weeks. - **Hierarchical scaling**: An individual AE monitors roughly 100 accounts, while a manager overseeing five reps uses the Watchtower to monitor 500 accounts simultaneously. - **Dynamic code execution**: The Watchtower handles cross-fleet query orchestration by programmatically writing code to execute fan-out calls across separate account storage layers.
---
[21:43](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1303s) Codebase Sandboxing, Continuous Instrumentation, and Self-Healing Software
Todd describes how Pendo uses sandboxed managed agents to inspect customer source code side by side with live application telemetry. After attempting to build an internal harness across multiple engineering teams, Pendo adopted Claude Managed Agents and went live in under two weeks. By offloading the underlying sandbox execution and container management, the engineering team only needed minor tuning to align the setup with their internal operational controls.
Operating with direct source repository access, the platform orchestrates continuous workflows across the entire development lifecycle: 1. **Pull Request UX Reviews**: Whenever an engineer opens a pull request, a sandboxed agent reviews code diffs and applies a lightweight UX critique to intercept poor interface decisions before they reach production. 2. **Automated Analytics Instrumentation**: Once code merges, the agent assesses the changes and autonomously submits a follow-up pull request injecting missing telemetry tracking into the codebase. 3. **Overnight Degradation Analysis**: Background jobs monitor production metrics, identifying conversion funnel dips or gradual month-over-month telemetry degradations. If a metric declines, the agent inspects merged commits from up to four weeks prior and drafts a remediation patch. 4. **Agentic Conversation Analysis**: The system monitors real-time user-agent conversations, flags unexpected error spikes, and suggests runtime prompt modifications.
Todd summarizes the ultimate architectural objective as creating "a self-healing piece of software." Rather than relying purely on pre-deployment checks, the platform observes how real users navigate interfaces, connects that telemetry directly to source code changes, and proposes automated fixes to help development teams ship continuously without friction.
---
[24:22](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1462s) The Progression of Evals: From Vibes to Live Production Traces
The founders debate the realities of evaluating agentic systems, contrasting early-stage iteration with production rigor. Initial prototyping always starts at "Phase zero," which is purely vibes-based. While quick internal dogfooding helps get an initial product off the ground, relying solely on internal company testers quickly leads to overfitting on an unrepresentative sample. A curated eval set that looks great internally can completely miss the real distribution of actual users, leaving teams hill-climbing on metrics that customers do not care about.
```mermaid flowchart LR accTitle: Evolution of Agent Evaluation Strategy accDescr: Four-phase progression of agent evals from informal vibes to segmented production test suites.
P0["Phase 0: Vibes-Based\n(Internal Dogfooding)"] P1["Production Telemetry\n(Thumbs Up / Down Signals)"] P2["Real Trace Extraction\n(Customer Interviews & Queries)"] P3["Segmented Offline Suites\n(Regressions, Tasks & Rubrics)"]
P0 --> P1 P1 --> P2 P2 --> P3 ```
To combat abstraction drift, one founder describes digging directly into customer queries and interviewing the users to learn what they actually intended to accomplish before writing a test case. True evaluation requires capturing broad production signals—such as explicit thumbs-up and thumbs-down ratings—and organizing them into distinct test cohorts: - **Regression suites** to catch breakages on previously solved user tasks. - **Edge-case partitions** to stress-test complex reasoning and corner cases. - **Task-specific cohorts** tailored to specific actions assigned to the agent. - **Unified rubrics** designed to align offline evaluation scoring with real-world user outcomes.
---
[26:41](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1601s) The Stateful Eval Trap and Preparing for Model Migrations
Evaluating agents that interface with mutable state remains an unsolved challenge. When an agent possesses live memory or integrates with third-party tools via the Model Context Protocol (MCP)—such as reading from a live Slack workspace—running deterministic offline evals becomes fragile. Because external state drifts constantly outside the system's control, test assertions inevitably fail unless engineering teams undertake the massive effort of mocking out entire third-party ecosystems. One founder laughs off the concept of fully mocking an enterprise workspace, noting that *"Mocking a customer's Slack I'm not getting in that territory. That's not too tractable."* While trajectory evals can score whether an agent interacts with its memory correctly, verifying exact end-state results on stateful operations remains difficult across the industry.
When handling major foundational model migrations (such as upgrading when an Opus-class model drops), the founders caution against hyper-optimizing prompts to the idiosyncrasies of one specific model family. An engineering team needs an established eval suite to benchmark the new model immediately, but they must also watch out for new "gotchas." Different models fail in entirely different ways; for example, newer model releases sometimes exhibit distinct stylistic shifts, introducing unmistakable "AI telltale signs" and unnatural prose quirks that require re-tuning prompt guardrails.
[28:13](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1693s) Model Failure Modes and Prompt Optimization
The discussion opens on the quirks and stylistic traps of newer model families. Rather than fussing over minor prompt tweaks to squeeze out an incremental gain, the founders emphasize the necessity of guarding against distinct regressions and bad stylistic habits—such as an overabundance of em dashes or convoluted, unreadable sentence structures. As models evolve, chasing prompt tweaks to extract the "last 1%" from a specific model generation matters far less than discovering and guarding against known, idiosyncratic failure modes. New model releases inevitably introduce new failure behaviors that teams must actively hedge against, whereas raw model intelligence will naturally improve with subsequent generations.
- Teams prioritize understanding model-specific failure modes over micro-optimizing prompts for diminishing returns. - Model updates frequently introduce stylistic quirks (such as excessive em dashes and unnatural sentence structures) that require targeted guardrails.
---
[28:48](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1728s) The Realities of Cost, Control, and Attribution
Cost remains top of mind for any team building production agents. As one founder remarks, "nobody working on agents right now is not worried about cost to some degree," noting that disregarding cost signals an unsustainable business model. The strategic question founders repeatedly ask is when the tradeoff between cost and engineering control justifies moving off Claude Managed Agents to build an in-house harness. While the infrastructure markup on Managed Agents is low relative to the CPU overhead provided, the platform currently lacks native abstractions like batch processing. Running scheduled tasks 24 hours in advance via batch mode could yield instant 50% to 75% cost reductions. For now, the pragmatic approach is to stay mindful and spend well while delivering rapid product value, deferring hyper-optimization until the platform either rolls out these capabilities or the product hits massive scale.
Attribution is an equally acute pain point. Founders must pinpoint exactly which sub-agent or call within the harness is driving spend. During massive evening batch runs where large volumes of customer data are processed, costs can spike quickly. Teams can implement quick engineering fixes—such as running jobs less frequently or trimming the payload size—without re-architecting the system. However, as agentic workflows mature, teams require granular telemetry to track attribution across every node in the execution tree.
- Managed Agents offers a low infrastructure markup, but the absence of native batch mode prevents teams from capturing estimated 50%–75% cost savings on non-urgent jobs. - Fine-grained telemetry is critical to trace which specific agent invocations and loop iterations accumulate budget during high-volume batch workloads. - Early scaling relies on lightweight interventions (pruning payload sizes and reducing job frequency) rather than full harness rewrites.
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[31:13](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1873s) Where Anthropic Can Improve: Cost Levers and Latency UX
When asked what Anthropic should improve across Claude and Managed Agents, the founders pinpoint two main areas: cost levers and latency user experience. Frontier models like Opus excel when deployed on tasks that demand peak intelligence and are relatively price-insensitive. However, products often follow a pattern where a central frontier agent must orchestrate or fan out across hundreds of parallel workers. In Actively's Watchtower feature, for instance, a lead agent coordinates discovery across 500 separate customer accounts; deploying frontier intelligence across every individual account check would be prohibitively expensive. In its current form, Claude Managed Agents can feel like an "all or nothing" proposition, lacking the dials needed to swap in cheaper models or run background tasks cheaply.
```mermaid flowchart TD accTitle: Tiered Multi-Agent Architecture accDescr: High-intelligence central orchestrator fanning out to lightweight workers across accounts.
subgraph Orchestration ["Frontier Orchestration Layer"] A["Main Coordinating Agent<br/>(Claude Opus / Frontier Intelligence)"] end
subgraph FanOut ["Distributed Execution Layer"] B["Account Worker 1<br/>(Cheaper, Low-Cost Model)"] C["Account Worker 2<br/>(Cheaper, Low-Cost Model)"] D["Account Worker 500...<br/>(Cheaper, Low-Cost Model)"] end
A -->|"Coordinates query"| B A -->|"Coordinates query"| C A -->|"Coordinates query"| D ```
To bridge this gap, founders want more flexible cost levers: configurable effort settings, multi-agent cost tiers, and asynchronous flex/batch modes that could cut expenses in half. Beyond pricing, latency remains a hurdle for interactive products. When agents take minutes on deep reasoning tasks, users tolerate variable latency; but for responsive, user-facing features, teams want lower-level levers like pre-warming sandboxes to eradicate cold-start delays.
- **High-intelligence vs. high-fanout:** Orchestrators require frontier reasoning, while fan-out jobs (such as scanning 500 accounts) need lightweight, low-cost models. - **Desired cost levers:** Anthropic should surface multi-tier model selection within harnesses, compute-effort sliders, and asynchronous batch/flex processing. - **Latency UX:** Teams building responsive tools need platform controls to pre-warm execution sandboxes and eliminate cold-start overhead.
---
[33:33](https://www.youtube.com/watch?v=hm8NzEd5io0&t=2013s) When to Build In-House vs. Leverage Managed Agents
The panel wraps up by distilling the exact framework for choosing between a managed platform and rolling a custom agent harness. If building a feature viability test or a non-standard interface—like an always-on, voice-controlled Jarvis "chief of staff"—demands a 90% cost drop or ultra-low latency, building an in-house harness becomes necessary. Outside those edge cases, managed agents excel in two primary scenarios: long-running tasks that demand frontier reasoning where teams are price-insensitive, and experimental validation where time-to-learn outweighs runtime infrastructure cost.
Mihir and the founders outline four key criteria that dictate when to rely on Claude Managed Agents: 1. **Frontier intelligence requirements:** Tasks where peak cognitive capability is strictly required. 2. **Price insensitivity:** Workflows where the underlying business value dwarfs raw model API costs. 3. **Tolerance for longer runtimes:** Complex jobs that legitimately take several minutes to reason through. 4. **Validating viability:** Fast-moving prototyping where the true operational cost of an experiment is measured in engineering weeks, making managed infrastructure the fastest path to production.
## Notable quotes > [05:16](https://www.youtube.com/watch?v=hm8NzEd5io0&t=316s) Help when you can and do not cause harm or annoyance. — Sahaj
> [06:52](https://www.youtube.com/watch?v=hm8NzEd5io0&t=412s) 30 different fields that mean the same thing that were deprecated — Mihir
> [16:03](https://www.youtube.com/watch?v=hm8NzEd5io0&t=963s) If the thing is not sticky, no amount of evaluation is going to make the thing sticky. You got to figure out how to make it sticky first.
> [18:43](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1123s) make tokens useful for salespeople — Mihir
> [18:43](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1123s) What are the five accounts I need to work on today?
> [21:43](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1303s) a self-healing piece of software. — Todd
> [26:41](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1601s) Mocking a customer's Slack I'm not getting in that territory. That's not too tractable.
> [28:48](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1728s) nobody working on agents right now is not worried about cost to some degree
> [31:13](https://www.youtube.com/watch?v=hm8NzEd5io0&t=1873s) all or nothing
## Mentioned Claude, Claude Managed Agents, Anthropic, Wispr, Sahaj, Actively, Mihir, Watchtower, Pendo, Todd, Salesforce, LinkedIn, Claude Code, Model Context Protocol (MCP), Slack, Claude Opus
## Video description We sat down with three founders to chat about what they learned building and scaling agents with Claude Managed Agents. Wispr shipped the first version of their meeting assistant in a day and scaled it in a few weeks. Actively built a cross-account sales agent in two weeks. Pendo’s analytics platform now reads customers' codebases and suggests fixes.
They get into verifying agent work with outcomes, running memory in production, sandboxing, evals, cost, and deciding what to build yourself.
Learn more about Claude Managed Agents: https://platform.claude.com/docs/en/managed-agents/overview
[Source](https://www.youtube.com/watch?v=hm8NzEd5io0)