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Why Jev Is Changing How We Build With AI with Diogo Almeida thumbnail

Why Jev Is Changing How We Build With AI with Diogo Almeida

Published 6 Oct 2026

Duration: 01:31:00

"Explores AI's automation limitations, introduces Jev - a model for machine-native intelligence - and critiques industry focus on demos over reliability, advocating for structured, programmatic outputs to improve real-world AI applications."

Episode Description

In this episode, Diogo Almeida, co-founder and CEO of TypeSafe, joins us to discuss Jev, TypeSafe's recently released model for bringing fast, reliabl...

Overview

The podcast discusses fundamental limitations in current AI systems, particularly large language models (LLMs), which excel at generating human-readable text but struggle with reliable, structured decision-making needed for automation. This "jagged edge" of performance stems from optimization for string generation rather than machine-actionable outputs, making AI unreliable for tasks like data entry, customer support, or form processing despite its proficiency in chat and coding. The discussion emphasizes that AI's design - especially reliance on transformers and techniques like RLHF (Reinforcement Learning from Human Feedback) - prioritizes human preferences over precise, calibrated decisions, leading to inconsistencies in real-world applications.

To address these gaps, a new model called Jev is introduced, designed for "machine-native intelligence" by focusing on decision-making rather than text generation. Built using approaches like RLCD (Reinforcement Learning from Critic and Demonstrations), Jev aims to deliver reliable, structured outputs that integrate seamlessly into software systems, functioning as an "intelligence API" with meaningful probabilities and developer-controlled logic. The model trades off chat capabilities for robustness in automation, enabling use cases like intelligent agents and workflow orchestration without reliance on error-prone LLMs. The broader vision is to shift AI development toward standardized, composable intelligence that is predictable, cost-effective, and deeply embedded in software engineering practices.

What If

  • What if you built a decision-driven automation layer using machine-native intelligence instead of text generation?

    • Move: Replace an LLM-based workflow (e.g., customer support triage) with a lightweight decision model like Jev that outputs structured actions (e.g., "escalate", "close", "refund") directly in your code. Start by defining 3 - 5 clear decision paths and integrate the model via API.
    • Why Now?: General-purpose LLMs are overkill for simple automation, costly, and unreliable. Models optimized for discrete decisions (like Jev) are now available, fast, and cheaper - making this the first practical window for developer-first, programmatic AI.
    • Expected Upside: 10x cost reduction, 5x faster execution, and reliable integration into existing systems - turning flaky prototypes into deployable features you can version-control and trust.
  • What if you diagnosed and fixed your app's most costly automation failure using a classifier focused on machine-actionable outputs?

    • Move: Audit one live AI-dependent feature (e.g., form processing or data routing) for failure modes. Use a decision model to replace or validate the LLM's output, measuring accuracy and drift. Retrain or reconfigure using RLCD-style feedback on real failures.
    • Why Now?: Tools like Jev expose calibrated probabilities and structured decisions - unlike opaque LLMs - so you can now debug and harden automations like traditional code. This shift from "string hacking" to decision engineering is newly within reach.
    • Expected Upside: Reduce production errors by 50 - 80%, cut retry/fallback logic, and gain confidence to scale automation without adding human-in-the-loop overhead.
  • What if you replaced a fragile agent architecture with a KV-cache-free design using stateless decision models?

    • Move: Rebuild a failing agent loop (e.g., customer onboarding bot) by removing reliance on context-heavy KV stores. Instead, use a decision model to evaluate each step independently and pass minimal state via code - treat the model as a pure function.
    • Why Now?: Agent systems are hitting walls due to context pollution and cost. With decision models that don't require persistent memory to function reliably, you can now design lean, composable, and debuggable automation.
    • Expected Upside: Eliminate context-length bottlenecks, reduce latency by 60%+, and enable dynamic routing (e.g., fan-out/fan-in) without state management debt - making your agent actually maintainable and scalable.

Takeaway

  • Focus on building or using AI models optimized for structured, machine-actionable decisions rather than human-readable text to improve reliability in automation tasks like form processing or data routing.
  • Integrate decision models like Jev into your codebase as an "intelligence API" that returns calibrated probabilities, enabling programmatic control over automation logic instead of relying on unstructured LLM outputs.
  • Prioritize model calibration and reliability over raw performance or speed, especially when deploying AI in production systems where predictable behavior reduces debugging overhead and increases developer trust.
  • Design AI-powered systems with user-defined harnesses and logic layers instead of depending on pre-built workflows, giving you full control over data flow, error handling, and integration with existing tools.
  • Replace brittle, KV-cache-dependent agent architectures with state-managed, composable patterns that allow for dynamic routing, filtering, and parallelization - treating AI decisions as type-safe functions within a broader software system.

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