Go beyond simply asking AI for answers. Use "reverse prompting" by instructing the AI to ask you clarifying questions about your goal. This forces you to think more deeply about your problem and provides the AI with better context, ultimately yielding superior results.

By making quick, cheap judgments, Jev can route tasks to the appropriate model, select relevant skills from a library, or decide how much "reasoning effort" an LLM needs. This pre-processing step drastically reduces token consumption, cost, and latency for AI agents.

Instead of manually crafting complex evaluation prompts, a more effective workflow is for a human to define the high-level criteria and red flags. Then, feed this guidance into a powerful LLM to generate the final, detailed, and robust prompt for the evaluation system, as AI is often better at prompt construction.

Jev, a "judgment model," is for high-volume, low-stakes decisions like classification and rating. Unlike LLMs, it doesn't write or reason but provides fast, cheap "snap judgments," making it ideal for automating micro-decisions in workflows.

Achieve higher-quality results by using an AI to first generate an outline or plan. Then, refine that plan with follow-up prompts before asking for the final execution. This course-corrects early and avoids wasted time on flawed one-shot outputs, ultimately saving time.

Jev processes tasks up to 400x cheaper than LLMs, with costs as low as cents for thousands of complex queries. This economic shift makes it feasible to analyze entire archives (emails, ads) for deep insights, a task previously too expensive or time-consuming.

Jev's output isn't a single definitive answer but a probability score for each possible choice (e.g., "80% confident this is a high-priority lead"). This structured, "type-safe" data allows developers to set thresholds and build complex, nuanced business logic directly in their code without parsing text.

The optimal way to use decision models like Jev is to break large problems into many small, independent questions. This contrasts with stuffing everything into a single LLM prompt. This decomposition makes each AI-driven step verifiable, measurable, and debuggable, leading to more reliable and maintainable software.

Instead of a single massive prompt, first feed the AI a "context-only" prompt with background information and instruct it not to analyze. Then, provide a second prompt with the analysis task. This two-step process helps the LLM focus and yields more thorough results.